mhurhangee/ep-ind-claims huggingface dataset:
A communication connector comprising: a housing; a plurality of pairs of electrical contacts received by the housing; a first printed circuit board; the PCB including at least first and second pairs of electrically conductive signal traces (37, 41; 39, 43); the first pair of traces (37, 41) connected to a first pair of contacts; the second pair of traces (39, 43) connected to a second pair of contacts; the PCB having first and second regions (50, 52); at least one trace (37, 41) of the first pair of traces located in the first region and at least one trace (39, 43) of the second pair of traces located in the second region; the PCB further including at least a first conductive ground plane; the first conductive ground plane having a gap thereby forming first and second sections (50, 52) which are not electrically connected to each other; at least a portion of the first section being adjacent to at least a portion of at least one trace of the first pair; at least a portion of the second section being adjacent to at least a portion of at least one trace of the second pair; characterised by the first pair of traces and the second pair of traces being spaced away from the first conductive ground plane in a layer stacking direction; the at least a portion of the first section being spaced away from the at least a portion of at least one trace of the first pair in the layer stacking direction; the at least a portion of the second section being spaced away from the at least a portion of at least one trace of the second pair in a layer stacking direction. a housing; a plurality of pairs of electrical contacts received by the housing; a first printed circuit board; the PCB including at least first and second pairs of electrically conductive signal traces (37, 41; 39, 43); the first pair of traces (37, 41) connected to a first pair of contacts; the second pair of traces (39, 43) connected to a second pair of contacts; the PCB having first and second regions (50, 52); at least one trace (37, 41) of the first pair of traces located in the first region and at least one trace (39, 43) of the second pair of traces located in the second region; the PCB further including at least a first conductive ground plane; the first conductive ground plane having a gap thereby forming first and second sections (50, 52) which are not electrically connected to each other; at least a portion of the first section being adjacent to at least a portion of at least one trace of the first pair; at least a portion of the second section being adjacent to at least a portion of at least one trace of the second pair; characterised by the first pair of traces and the second pair of traces being spaced away from the first conductive ground plane in a layer stacking direction; the at least a portion of the first section being spaced away from the at least a portion of at least one trace of the first pair in the layer stacking direction; the at least a portion of the second section being spaced away from the at least a portion of at least one trace of the second pair in a layer stacking direction.
A communications terminal for communicating data to and receiving data from a mobile communications network, the mobile communications network including a radio network part including one or more base stations configured to provide a low bandwidth communications interface in accordance with 3rd Generation Partnership Project, 3GPP, Long Term Evolution, LTE, or 3GPP General Packet Radio Service, GPRS, formed from a low bandwidth carrier for communicating the data to or receiving the data from the communications terminal in accordance with a relatively low bandwidth which is for allocation to machine type communication, MTC, devices, and to provide a high bandwidth communications interface in accordance with 3GPP LTE formed from a high bandwidth carrier for communicating the data to or receiving the data from the communications terminal in accordance with a relatively high bandwidth, the communications terminal being configured to attach for communication to the high bandwidth interface, and in response to receiving a command from the mobile communications network, to detach from the high bandwidth interface and to re-attach to the low bandwidth interface for communicating the data to or from the mobile communications network via the low bandwidth interface.
An upper for an article of footwear, the upper comprising a first knitted component, wherein the first knitted component has a first edge extending from a first side of a throat area of the upper, through a heel area of the upper, and to a second side of the throat area, wherein at least a portion of the first edge includes a lattice structure, the lattice structure having a first lattice band and a second lattice band, the first lattice band and the second lattice band having loops that are intermeshed in at least one location wherein a plurality of first openings are located between the first lattice band and the second lattice band, characterised in that at least one of the lattice bands (142, 144) includes a yarn having a tenacity of at least 4.45 mN/dtex (5 g/D), and wherein the lattice structure extends from the throat area on a lateral side of the upper around the heel area and to the throat area on a medial side of the upper. a first knitted component, wherein the first knitted component has a first edge extending from a first side of a throat area of the upper, through a heel area of the upper, and to a second side of the throat area, wherein at least a portion of the first edge includes a lattice structure, the lattice structure having a first lattice band and a second lattice band, the first lattice band and the second lattice band having loops that are intermeshed in at least one location wherein a plurality of first openings are located between the first lattice band and the second lattice band, characterised in that at least one of the lattice bands (142, 144) includes a yarn having a tenacity of at least 4.45 mN/dtex (5 g/D), and wherein the lattice structure extends from the throat area on a lateral side of the upper around the heel area and to the throat area on a medial side of the upper.
A compressor comprising: a closed container having an oil reservoir in which lubricating oil is accumulated; a compression element placed within the closed container; a motor which is placed within the closed container and which drives the compression element via a shaft; wherein a stator core of the motor has a plurality of oil return passages extending through one surface of the stator core located on its one side closer to the oil reservoir and the other surface of the stator core located on its another side opposite to the oil reservoir, characterised in that on the other surface of the stator core, a hydraulic diameter of each of the oil return passages is 5 mm or larger, and a ratio of a total area of the plurality of oil return passages to an area of a virtual circle having a diameter equal to a maximum outer diameter of the stator core is 5 to 15% and the lubricating oil has a viscosity of 5x10 -6 - 300x10 -6 m 2 /s at 40°C. a closed container having an oil reservoir in which lubricating oil is accumulated; a compression element placed within the closed container; a motor which is placed within the closed container and which drives the compression element via a shaft; wherein a stator core of the motor has a plurality of oil return passages extending through one surface of the stator core located on its one side closer to the oil reservoir and the other surface of the stator core located on its another side opposite to the oil reservoir, characterised in that on the other surface of the stator core, a hydraulic diameter of each of the oil return passages is 5 mm or larger, and a ratio of a total area of the plurality of oil return passages to an area of a virtual circle having a diameter equal to a maximum outer diameter of the stator core is 5 to 15% and the lubricating oil has a viscosity of 5x10 -6 - 300x10 -6 m 2 /s at 40°C.
An aqueous composition comprising: (a) an aromatic-acrylic polymer comprising from 3 to 11 wt% polymerized units of C 3 -C 6 carboxylic acid monomers and from 0.2 to 3 wt% polymerized units of anti-agglomerating monomers; (b) a reactive polyfunctional thermosetting resin; (c) a polyvalent metal ion; and (d) a polyfunctional curing agent, wherein the anti-agglomerating monomers are selected from phosphoethyl methacrylate, sodium styrene sulfonate, acetoacetoxyethyl methacrylate, and acrylamido-methyl-propane sulfonate, and wherein the curing agent is stored separately from the thermosetting resin.
A computer implemented method for a multi-tenant system, the method comprising: determining whether a reference attribute of a multi-tenant application is available for a tenant, wherein the reference attribute is indicative of variations from default attributes of the multi-tenant application; characterized by ascertaining whether a configuration template is defined for the tenant when the reference attribute is available; determining one or more parent configuration templates associated with the configuration template, whereby the configuration template inherits metadata pertaining to variations in the application behavior from the one or more parent configuration templates; identifying an application behavior, of the multi-tenant application, corresponding to the tenant based at least on the configuration template, the one or more parent configuration templates, and the reference attribute, when the configuration template is defined for the tenant; and providing the identified application behavior to the multi-tenant application such that the multi-tenant application exhibits the identified application behavior for the tenant. determining whether a reference attribute of a multi-tenant application is available for a tenant, wherein the reference attribute is indicative of variations from default attributes of the multi-tenant application; characterized by ascertaining whether a configuration template is defined for the tenant when the reference attribute is available; determining one or more parent configuration templates associated with the configuration template, whereby the configuration template inherits metadata pertaining to variations in the application behavior from the one or more parent configuration templates; identifying an application behavior, of the multi-tenant application, corresponding to the tenant based at least on the configuration template, the one or more parent configuration templates, and the reference attribute, when the configuration template is defined for the tenant; and providing the identified application behavior to the multi-tenant application such that the multi-tenant application exhibits the identified application behavior for the tenant.
An unmanned air vehicle having a mounting system for the removable attachment of a payload to the unmanned air vehicle, the unmanned air vehicle including an aircraft structure having a payload area adjacent to a payload bay, characterized in that: the mounting system includes: (i) a pair of lower rails disposed adjacent the payload area of the aircraft structure, said lower rails configured to interface with the payload; and (ii) a pair of upper rails disposed adjacent the payload area, said upper rails spaced apart from said lower rails, said upper rails configured to interface with the payload, wherein said lower rails and said upper rails extend along a longitudinal axis of the aircraft structure. (i) a pair of lower rails disposed adjacent the payload area of the aircraft structure, said lower rails configured to interface with the payload; and (ii) a pair of upper rails disposed adjacent the payload area, said upper rails spaced apart from said lower rails, said upper rails configured to interface with the payload,
An electrophoretic measurement method, comprising: providing an upright u-shaped vessel that holds a buffer, providing a first electrode immersed in the buffer, providing a second electrode immersed in the buffer, injecting a sample at a location within the buffer in an optical detection region at the base of the vessel between the first and second electrodes (24, 26) such that it may diffuse to the first and second electrodes (24, 26), with the sample being initially separated from the electrodes (24, 26) such that the buffer isolates the sample from the electrode surfaces whilst maintaining electrical contact with the electrode surfaces, applying an alternating electric field across the electrodes (24, 26), illuminating the optical detection region with temporally coherent light, detecting a frequency shift in light from the step of illuminating that has interacted with the sample during the step of applying an alternating electric field; wherein detecting takes place before the sample has diffused to either of the first and second electrodes (24, 26), and deriving a property of the sample based on results of the step of detecting. providing an upright u-shaped vessel that holds a buffer, providing a first electrode immersed in the buffer, providing a second electrode immersed in the buffer, injecting a sample at a location within the buffer in an optical detection region at the base of the vessel between the first and second electrodes (24, 26) such that it may diffuse to the first and second electrodes (24, 26), with the sample being initially separated from the electrodes (24, 26) such that the buffer isolates the sample from the electrode surfaces whilst maintaining electrical contact with the electrode surfaces, applying an alternating electric field across the electrodes (24, 26), illuminating the optical detection region with temporally coherent light, detecting a frequency shift in light from the step of illuminating that has interacted with the sample during the step of applying an alternating electric field; wherein detecting takes place before the sample has diffused to either of the first and second electrodes (24, 26), and deriving a property of the sample based on results of the step of detecting.
Method for slicing a food block into portions having a predetermined nominal weight, wherein the length and the weight of the food block are determined, characterized in that - the length and the weight of the first slice and of the end piece are determined, and - the available length and the average length to be sliced for each portion are calculated therefrom. - the length and the weight of the first slice and of the end piece are determined, and - the available length and the average length to be sliced for each portion are calculated therefrom.
A method of regenerating a desiccant in an off-line treater (15, 45) of a polyolefin production process, the method comprising a heating phase followed by a cooling phase, the heating phase comprising: treating a recycle stream of the polyolefin production process in an on-line treater (10, 40) to yield a treated recycle stream, wherein the on-line treater (10, 40) is configured to remove water from the recycle stream; heating at least a portion of the treated recycle stream to yield a regenerating gas; regenerating at least a portion of the desiccant in the off-line treater (15, 45) using the regenerating gas to yield a regenerating effluent stream; separating the regenerating effluent stream into an impurity stream and a regenerating recycle stream; and recycling the regenerating recycle stream to the on-line treater (10, 40). treating a recycle stream of the polyolefin production process in an on-line treater (10, 40) to yield a treated recycle stream, wherein the on-line treater (10, 40) is configured to remove water from the recycle stream; heating at least a portion of the treated recycle stream to yield a regenerating gas; regenerating at least a portion of the desiccant in the off-line treater (15, 45) using the regenerating gas to yield a regenerating effluent stream; separating the regenerating effluent stream into an impurity stream and a regenerating recycle stream; and recycling the regenerating recycle stream to the on-line treater (10, 40).
A radio-frequency power generator, comprising: an output configured to output an RF power signal; a signal generator to generate an RF input signal; an RF power stage which receives the RF input signal and generates an amplified RF power signal at its output; at least one sampler configured to sample the RF signal at the output of the RF power stage; a controller comprising a digital control portion and an analogue control portion, an analogue feedback path (F A) between the at least one sampler and the controller enabling an analogue signal representation of a signal from the at least one sampler to be provided to the controller, and a digital feedback path (F D) between the at least one sampler and the controller enabling a digital signal representation of the signal from the at least one sampler to be provided to the controller; wherein the controller is configured to adjust the RF power signal at the output of the RF generator from a first state into a second state based on the analogue signal representation and/or the digital signal representation, characterized in that the analogue control portion of the controller is configured to bypass or to override the digital control portion. an output configured to output an RF power signal; a signal generator to generate an RF input signal; an RF power stage which receives the RF input signal and generates an amplified RF power signal at its output; at least one sampler configured to sample the RF signal at the output of the RF power stage; a controller comprising a digital control portion and an analogue control portion, an analogue feedback path (F A) between the at least one sampler and the controller enabling an analogue signal representation of a signal from the at least one sampler to be provided to the controller, and a digital feedback path (F D) between the at least one sampler and the controller enabling a digital signal representation of the signal from the at least one sampler to be provided to the controller; wherein the controller is configured to adjust the RF power signal at the output of the RF generator from a first state into a second state based on the analogue signal representation and/or the digital signal representation, characterized in that the analogue control portion of the controller is configured to bypass or to override the digital control portion.
A block co-polymer comprising at least one first block and at least one second block which is different from the first block, wherein the first block comprises repeating units 1, repeating unit 1 and the second block comprises repeating units 2, repeating unit 2 wherein Z represents O or NH, R 1 represents H or CH 3, R 2 represents a group selected from hydrocarbyl groups and ether group-containing groups, R 3 represents an organic group having 2 to 4 carbon atoms, R 4 and R 5 independently represent an organic group, wherein R 4 and R 5 are optionally linked to each other to form a cyclic structure, and wherein the first block comprises at least six different types of repeating units 1. Z represents O or NH, R 1 represents H or CH 3, R 2 represents a group selected from hydrocarbyl groups and ether group-containing groups, R 3 represents an organic group having 2 to 4 carbon atoms, R 4 and R 5 independently represent an organic group, wherein R 4 and R 5 are optionally linked to each other to form a cyclic structure, and wherein the first block comprises at least six different types of repeating units 1.
An electrochemical device comprising a fluidic cell having an internal volume able to be filled with a fluid and at least one first and one second electrode making contact with said internal volume, wherein at least said first electrode comprises a thin layer made of a conductive material that is optically absorbent at at least one wavelength λ in the visible, near-infrared or near-ultraviolet spectrum, said thin layer being arranged on or in an internal surface of a wall of said fluidic cell which is at least partially transparent to said wavelength λ, characterized in that it also comprises an optical device for imaging in reflection arranged for illuminating said thin layer through said wall at at least said wavelength λ and to also observe it through said wall; and in that said wall forms, with said thin layer, a window having, when lit by the optical device for imaging in reflection at said wavelength λ, a transmittance higher than or equal to 30%.
A method of coordinating interference, comprising: according to interference tolerance capability information reported by a User Equipment, UE, and information on the UE accessing a network, determining whether the UE has in-device interference between uplink and downlink transmissions in two frequency bands; and when the UE has in-device interference between the uplink and downlink transmissions in the two frequency bands, sending configuration information to the UE, wherein the configuration information is carried in broadcast signaling, upper layer signaling, or physical layer control signaling sent by a base station and is used to instruct the UE to, in a time interval during which the base station sends control data of the downlink transmission in one of the two frequency bands, stop the uplink transmission in at least one of the two frequency bands or perform power back-off for the uplink transmission in the at least one of the two frequency bands. according to interference tolerance capability information reported by a User Equipment, UE, and information on the UE accessing a network, determining whether the UE has in-device interference between uplink and downlink transmissions in two frequency bands; and when the UE has in-device interference between the uplink and downlink transmissions in the two frequency bands, sending configuration information to the UE, wherein the configuration information is carried in broadcast signaling, upper layer signaling, or physical layer control signaling sent by a base station and is used to instruct the UE to, in a time interval during which the base station sends control data of the downlink transmission in one of the two frequency bands, stop the uplink transmission in at least one of the two frequency bands or perform power back-off for the uplink transmission in the at least one of the two frequency bands.
A method of controlling operation of equipment that spools cable on and off a rotatable drum, the method comprising: obtaining video data of a position of the cable on the rotatable drum; and characterized in that the method further comprises feeding the data into a trained artificial neural network; processing the data fed into the trained artificial neural network to determine at least one quantity of the cable, wherein the trained neural network applies a Bayesian dropout method to quantify model uncertainty; and actuating the rotatable drum to one of spool cable on and off the rotatable drum. obtaining video data of a position of the cable on the rotatable drum; and characterized in that the method further comprises feeding the data into a trained artificial neural network; processing the data fed into the trained artificial neural network to determine at least one quantity of the cable, wherein the trained neural network applies a Bayesian dropout method to quantify model uncertainty; and actuating the rotatable drum to one of spool cable on and off the rotatable drum.