mhurhangee/ep-ind-claims huggingface dataset:
A composition for forming a conductive pattern by electromagnetic irradiation, comprising: a polymer resin; and a non-conductive metal compound comprising a first metal, a second metal, and a third metal, the non-conductive metal compound having a three-dimensional structure comprising a plurality of first layers that comprises two metals of the first metal, the second metal, and the third metal and has edge-shared octahedrons two-dimensionally connected to each other, and a second layer that comprises a metal different from that of the first layer and is arranged between the neighboring first layers, wherein a metal core including the first metal, second metal, or third metal, or an ion thereof is formable from the non-conductive metal compound by electromagnetic irradiation, and the non-conductive metal compound comprises a compound represented by the following Chemical Formula 1: [Chemical Formula 1] A 3 (BC 2)X 6 wherein A, B and C represent each independently the first metal, the second metal, and the third metal, A is one or more metals selected from the group consisting of Cu, Ag and Au, B is one or more metals selected from the group consisting of Ni, Co and Fe, C is V, and X is oxygen, nitrogen, or sulfur. a polymer resin; and a non-conductive metal compound comprising a first metal, a second metal, and a third metal, the non-conductive metal compound having a three-dimensional structure comprising a plurality of first layers that comprises two metals of the first metal, the second metal, and the third metal and has edge-shared octahedrons two-dimensionally connected to each other, and a second layer that comprises a metal different from that of the first layer and is arranged between the neighboring first layers, wherein a metal core including the first metal, second metal, or third metal, or an ion thereof is formable from the non-conductive metal compound by electromagnetic irradiation, and the non-conductive metal compound comprises a compound represented by the following Chemical Formula 1: [Chemical Formula 1] A 3 (BC 2)X 6 wherein A, B and C represent each independently the first metal, the second metal, and the third metal, A is one or more metals selected from the group consisting of Cu, Ag and Au, B is one or more metals selected from the group consisting of Ni, Co and Fe, C is V, and X is oxygen, nitrogen, or sulfur.
A battery comprising: a first cell and a second cell disposed in a stacked orientation; and an electrically conductive plate connecting the first cell with the second cell, wherein the electrically conductive plate comprises a first metal layer and a second metal layer, wherein the electrically conductive plate has a connection region and a gap region, wherein the first metal layer and the second metal layer extend away from one another in the gap region to provide a separation between the first metal layer and the second metal layer, wherein the gap region is configured to accommodate increases of up to 10% in a direction of the stacked orientation, and wherein the first cell contacts the first metal layer in the connection region, and wherein the second cell contacts the second metal layer in the connection region. a first cell and a second cell disposed in a stacked orientation; and an electrically conductive plate connecting the first cell with the second cell, wherein the electrically conductive plate comprises a first metal layer and a second metal layer, wherein the electrically conductive plate has a connection region and a gap region, wherein the first metal layer and the second metal layer extend away from one another in the gap region to provide a separation between the first metal layer and the second metal layer, wherein the gap region is configured to accommodate increases of up to 10% in a direction of the stacked orientation, and wherein the first cell contacts the first metal layer in the connection region, and wherein the second cell contacts the second metal layer in the connection region. wherein the electrically conductive plate comprises a first metal layer and a second metal layer, wherein the electrically conductive plate has a connection region and a gap region, wherein the first metal layer and the second metal layer extend away from one another in the gap region to provide a separation between the first metal layer and the second metal layer, wherein the gap region is configured to accommodate increases of up to 10% in a direction of the stacked orientation, and wherein the first cell contacts the first metal layer in the connection region, and wherein the second cell contacts the second metal layer in the connection region.
Apparatus for packaging a product arranged on a support, said apparatus comprising: a frame, a conveyor engaged to the frame and configured to move one or more supports along a pre-set advancement path, a packaging station configured for: ∘ receiving at least one support at a respective positioning seat, said support having at least one base wall, and optionally at least one lateral wall emerging from the base wall, ∘ receiving at least one portion of a film above said at least one support so that, between said support and said film portion, a reception volume is defined for the product, ∘ sealingly constraining the film portion to said support, said packaging station comprising at least one penetrating tool being configured to be arranged in at least one advanced position in which a part of the tool crosses the base wall or a lateral wall of a support arranged in said positioning seat, accessing said reception volume, wherein the penetrating tool has at least one first through opening and at least one second through opening distinct and separate from each other, wherein the penetrating tool is configured to have, at the advanced position, the first through opening arranged at least partly in the reception volume, beyond said base wall or beyond said lateral wall, characterized by the fact that the penetrating tool is configured to have, at the advanced position, the second through opening arranged astride said base wall or said lateral wall. a frame, a conveyor engaged to the frame and configured to move one or more supports along a pre-set advancement path, a packaging station configured for: ∘ receiving at least one support at a respective positioning seat, said support having at least one base wall, and optionally at least one lateral wall emerging from the base wall, ∘ receiving at least one portion of a film above said at least one support so that, between said support and said film portion, a reception volume is defined for the product, ∘ sealingly constraining the film portion to said support, said packaging station comprising at least one penetrating tool being configured to be arranged in at least one advanced position in which a part of the tool crosses the base wall or a lateral wall of a support arranged in said positioning seat, accessing said reception volume, ∘ receiving at least one support at a respective positioning seat, said support having at least one base wall, and optionally at least one lateral wall emerging from the base wall, ∘ receiving at least one portion of a film above said at least one support so that, between said support and said film portion, a reception volume is defined for the product, ∘ sealingly constraining the film portion to said support, said packaging station comprising at least one penetrating tool being configured to be arranged in at least one advanced position in which a part of the tool crosses the base wall or a lateral wall of a support arranged in said positioning seat, accessing said reception volume,
A method of programming a temperature controller for a heater for heating the contents of a container in a hazardous area, the method comprising the steps of: - writing controller identification data and associated parameter data to a memory of a portable token in an area remote from the temperature controller in the hazardous area; - transporting said portable token to a position in proximity to the temperature controller in the hazardous area; - transmitting, by means of near field communication, the controller identification data and associated parameter data stored in the memory of the portable token to a receiver in the temperature controller; - comparing the controller identification data received by the temperature controller with controller identification data stored in a memory of the temperature controller; - if said comparison of controller identification data is positive, updating parameter data stored in the memory of the temperature controller with the associated parameter data received by the receiver; and - if said comparison is negative, not updating the parameter data stored in the memory of the temperature controller with the associated parameter data received by the receiver. - writing controller identification data and associated parameter data to a memory of a portable token in an area remote from the temperature controller in the hazardous area; - transporting said portable token to a position in proximity to the temperature controller in the hazardous area; - transmitting, by means of near field communication, the controller identification data and associated parameter data stored in the memory of the portable token to a receiver in the temperature controller; - comparing the controller identification data received by the temperature controller with controller identification data stored in a memory of the temperature controller; - if said comparison of controller identification data is positive, updating parameter data stored in the memory of the temperature controller with the associated parameter data received by the receiver; and - if said comparison is negative, not updating the parameter data stored in the memory of the temperature controller with the associated parameter data received by the receiver.
A semiconductor cooling arrangement, comprising: one or more semiconductor assemblies, each assembly comprising a heatsink and one or more semiconductor power devices mounted on, and thermally coupled to, the heatsink; a housing for housing the one or more assemblies in a chamber within the housing, the housing comprising inlet and outlet ports in fluid communication with the chamber respectively for receiving and outputting a dielectric cooling fluid, the chamber being flooded with the cooling fluid to cool the assemblies; wherein the heatsink comprises heat exchanging elements in the form of a plurality of holes in the heatsink extending through the heatsink from a front face of the heatsink, onto which the one or more semiconductor power devices are mounted, to a rear face of the heatsink opposing the front face, such that the cooling fluid flows through the holes to extract heat from the heatsink. one or more semiconductor assemblies, each assembly comprising a heatsink and one or more semiconductor power devices mounted on, and thermally coupled to, the heatsink; a housing for housing the one or more assemblies in a chamber within the housing, the housing comprising inlet and outlet ports in fluid communication with the chamber respectively for receiving and outputting a dielectric cooling fluid, the chamber being flooded with the cooling fluid to cool the assemblies;
An assistance device comprising: a speed reducer configured to decelerate a driving force from a motor and output the decelerated driving force, characterized in that the speed reducer is configured to receive an operation force produced by an operation of a human and decelerate the operation force. a speed reducer configured to decelerate a driving force from a motor and output the decelerated driving force, characterized in that the speed reducer is configured to receive an operation force produced by an operation of a human and decelerate the operation force.
A system comprising a priming well to couple blasting caps to a detonative cord via a cap box, the priming well comprising: a housing comprising: a first aperture extending into the housing and configured to receive the detonative cord; and a second aperture extending into the housing and configured to receive at least one blasting cap, the first aperture and the second aperture overlapping inside the housing to dispose the detonative cord inserted into the priming well in proximity to the at least one blasting cap inserted into the priming well such that initiation of the at least one blasting cap will initiate detonation of the detonative cord; the cap box comprising: a cap box housing comprising [[,]]apertures extending from a first end of the cap box housing through the cap box housing, which apertures are configured to receive the at least one blasting cap therein, wherein the second aperture of the housing is configured to receive the at least one blasting cap received within the cap box. the priming well comprising: a housing comprising: a first aperture extending into the housing and configured to receive the detonative cord; and a second aperture extending into the housing and configured to receive at least one blasting cap, the first aperture and the second aperture overlapping inside the housing to dispose the detonative cord inserted into the priming well in proximity to the at least one blasting cap inserted into the priming well such that initiation of the at least one blasting cap will initiate detonation of the detonative cord; a first aperture extending into the housing and configured to receive the detonative cord; and a second aperture extending into the housing and configured to receive at least one blasting cap, the first aperture and the second aperture overlapping inside the housing to dispose the detonative cord inserted into the priming well in proximity to the at least one blasting cap inserted into the priming well such that initiation of the at least one blasting cap will initiate detonation of the detonative cord; the cap box comprising: a cap box housing comprising [[,]]apertures extending from a first end of the cap box housing through the cap box housing, which apertures are configured to receive the at least one blasting cap therein, wherein the second aperture of the housing is configured to receive the at least one blasting cap received within the cap box.
A contact device (20, 50) for contacting a contact conductor arrangement comprising at least two contact conductors (25, 26), the contact device having at least two contact strip arrangements, each comprising at least one contact strip (21, 22) arranged on a contact strip support (23, 24), the contact strip supports being connected to each other in such a manner that the contact strip supports each form a parallelogram with the contact strips, which are aligned parallel to each other, characterized in that the contact strip supports are connected to each other parallel to a plane of extension (60, 61) of the contact conductors and via an arrangement of parallel rods comprising two parallel connecting rods (35, 36), the contact strip supports each being connected to the connecting rods in one of two parallel hinge planes (64, 65) at mutually spaced hinge points (33, 34) on mutually parallel rotational axes (48, 49) in such a manner that the respective left hinge points of the contact strip supports (23, 24) are connected via a first connecting rod and the respective right hinge points of the contact strip supports (23, 24) are connected via the second connecting rod, a central axis (38, 39) of each connecting rod (35, 36), which runs parallel to the rotational axes (48, 49), being connected to a base support at a hinge point (40, 41) in a pivoting manner such that an advancing motion of the base support in the direction of the contact conductor arrangement causes a corresponding advancing motion of the contact strips.
A method of managing content delivery over a network to a client device, wherein the content comprises a plurality of segments, said method comprising: i) receiving unicast requests for a plurality of segments from a client device at a first network element; ii) receiving the requested plurality of segments over unicast at the first network element; iii) determining the time interval between requests for each given segment; iv) determining the size of each given segment; v) estimating a delivery rate as the quotient of the total size of the segments and the total of the time intervals associated with the segments; vi) receiving unicast requests for further segments from the client device at the first network element; vii) delivering the further segments over multicast to the first network element, wherein the multicast rate used to deliver the further segments is set as a function of the estimated delivery rate. i) receiving unicast requests for a plurality of segments from a client device at a first network element; ii) receiving the requested plurality of segments over unicast at the first network element; iii) determining the time interval between requests for each given segment; iv) determining the size of each given segment; v) estimating a delivery rate as the quotient of the total size of the segments and the total of the time intervals associated with the segments; vi) receiving unicast requests for further segments from the client device at the first network element; vii) delivering the further segments over multicast to the first network element, wherein the multicast rate used to deliver the further segments is set as a function of the estimated delivery rate.
A process for transitioning from the production of a first polymer to the production of a second polymer in a gas phase fluidised bed or stirred bed reactor, said process comprising the steps of: a) Conducting a first polymerisation reaction in the reactor using a first polymerisation catalyst system to produce a first polymer, b) Stopping the first polymerisation reaction and removing at least the majority of the polymer in the reactor, c) Introducing into the reactor a seed-bed comprising at least 50ppm of contaminants, wherein the seedbed has been maintained under at least 50ppm but less than 500ppm of contaminants during storage, contaminants being components which act to inhibit the activity of polymerisation catalyst system or polymerisation catalyst system residues present in the seedbed, d) Treating the seed-bed in the reactor to reduce the amount of contaminants, and e) Conducting a second polymerisation reaction in the reactor to produce a second polymer. a) Conducting a first polymerisation reaction in the reactor using a first polymerisation catalyst system to produce a first polymer, b) Stopping the first polymerisation reaction and removing at least the majority of the polymer in the reactor, c) Introducing into the reactor a seed-bed comprising at least 50ppm of contaminants, wherein the seedbed has been maintained under at least 50ppm but less than 500ppm of contaminants during storage, contaminants being components which act to inhibit the activity of polymerisation catalyst system or polymerisation catalyst system residues present in the seedbed, d) Treating the seed-bed in the reactor to reduce the amount of contaminants, and e) Conducting a second polymerisation reaction in the reactor to produce a second polymer.
A method for preventing mis-adaptation in a feed-forward engine order cancellation, EOC, system, the method comprising: adjusting an adaptive transfer characteristic (W(z)) based on a noise signal (X(n)) received from a noise signal generator, an error signal (e(n)) received from a microphone located in a cabin of a vehicle, and an adaptation parameter; generating an anti-noise signal (Y(n)) based in part on the adaptive transfer characteristic (W(z)), the anti-noise signal (Y(n)) to be radiated by a speaker as anti-noise within the cabin of the vehicle; detecting a non-stationary event based on signal parameters sampled from a frame of the error signal (e(n)); modifying at least one of the adaptation parameter and the error signal (e(n)) for a duration of the frame in response to detecting the non-stationary event; and modifying the error signal (e(n)) by removing non-stationary noise indicated by the detected non-stationary event to obtain an adjusted error signal (e'(n)), wherein the non-stationary noise is indicative of speech. adjusting an adaptive transfer characteristic (W(z)) based on a noise signal (X(n)) received from a noise signal generator, an error signal (e(n)) received from a microphone located in a cabin of a vehicle, and an adaptation parameter; generating an anti-noise signal (Y(n)) based in part on the adaptive transfer characteristic (W(z)), the anti-noise signal (Y(n)) to be radiated by a speaker as anti-noise within the cabin of the vehicle; detecting a non-stationary event based on signal parameters sampled from a frame of the error signal (e(n)); modifying at least one of the adaptation parameter and the error signal (e(n)) for a duration of the frame in response to detecting the non-stationary event; and modifying the error signal (e(n)) by removing non-stationary noise indicated by the detected non-stationary event to obtain an adjusted error signal (e'(n)), wherein the non-stationary noise is indicative of speech.
A single pivot front derailleur for shifting a bicycle chain between a small chainring and a large chainring, the front derailleur comprising: a mounting mechanism for structurally securing the front derailleur to a bicycle frame; and a movement mechanism connected to the mounting mechanism, wherein the movement mechanism comprises an arm and a chain guide connected to a distal end of the arm, wherein the arm and the chain guide rotate about a single pivot in a plane of rotation, characterised in that: the arm has a proximal end housing the single pivot, the plane of rotation is at an acute angle (α) relative to a vertical plane of the bicycle frame, and the chain guide is configured for lifting up or pulling down on the bicycle chain during shifting. a mounting mechanism for structurally securing the front derailleur to a bicycle frame; and a movement mechanism connected to the mounting mechanism, wherein the movement mechanism comprises an arm and a chain guide connected to a distal end of the arm, wherein the arm and the chain guide rotate about a single pivot in a plane of rotation, characterised in that: the arm has a proximal end housing the single pivot, the plane of rotation is at an acute angle (α) relative to a vertical plane of the bicycle frame, and the chain guide is configured for lifting up or pulling down on the bicycle chain during shifting. the arm has a proximal end housing the single pivot, the plane of rotation is at an acute angle (α) relative to a vertical plane of the bicycle frame, and the chain guide is configured for lifting up or pulling down on the bicycle chain during shifting.