mhurhangee/ep-ind-claims huggingface dataset:
A power-transfer system comprising: a foreign object detection, FOD, system configured to detect both foreign objects and a passive beacon of an electric vehicle power-transfer system, the FOD system configured to detect the passive beacon based on characteristic changes in impedance or admittance of one or more of an array of FOD sense loops in response to a modulation of the passive beacon; and a position detection system integrated with the FOD system, the position detection system configured to: determine a passive beacon response in input data of the FOD system based on a modulation frequency of the modulation of the passive beacon; the power transfer system being characterized in that the FOD system is configured to cancel the passive beacon response from the input data, and detect whether foreign objects are present based on the input data with the passive beacon response canceled; and determine a position of a beacon loop of the passive beacon relative to the array of FOD sense loops based on the passive beacon response. a foreign object detection, FOD, system configured to detect both foreign objects and a passive beacon of an electric vehicle power-transfer system, the FOD system configured to detect the passive beacon based on characteristic changes in impedance or admittance of one or more of an array of FOD sense loops in response to a modulation of the passive beacon; and a position detection system integrated with the FOD system, the position detection system configured to: determine a passive beacon response in input data of the FOD system based on a modulation frequency of the modulation of the passive beacon; the power transfer system being characterized in that the FOD system is configured to cancel the passive beacon response from the input data, and detect whether foreign objects are present based on the input data with the passive beacon response canceled; and determine a position of a beacon loop of the passive beacon relative to the array of FOD sense loops based on the passive beacon response. determine a passive beacon response in input data of the FOD system based on a modulation frequency of the modulation of the passive beacon; the power transfer system being characterized in that the FOD system is configured to cancel the passive beacon response from the input data, and detect whether foreign objects are present based on the input data with the passive beacon response canceled; and determine a position of a beacon loop of the passive beacon relative to the array of FOD sense loops based on the passive beacon response.
An induction cooking top (301,801,901) comprising a plurality of non-overlapping inductors (305,307,804,805,807,905) arranged with their centres lying in concentric circumferences (306,308,804,806,808) wherein the size of said inductors (305,307,804,805,807,905) of said plurality follows a decreasing monotonic law as the distance from the centre of said circumferences increases, characterised in that said induction cooking top (301,801,901) further comprises a central inductor (302,802) whose centre (309,813) substantially coincides with the centre of said concentric circumferences, (306,308,804,806,808) wherein said central inductor is (302,802) larger than the inductors (305,307,804,805,807,905) of said plurality of inductors.
Photocatalytic film comprising at least one polymer layer comprising at least one photocatalyst, said layer being both permeable to the vapors of at least one fumigating compound, said permeability being defined according to the NF T 54-195 standard, with a permeability value greater than or equal to 0.2 g/m 2 • hour, and permeable to ultraviolet radiation capable of activating the photocatalyst, said radiation being between 280 nm and 400 nm.
A method for the position determination of objects in road traffic, based on communication signals, in which at least one data-transporting communication signal is wirelessly transmitted from at least one sender (217, 218, 219, 220, 221, 34), wherein the at least one communication signal is reflected at least partially as a reflection signal on at least one object (211, 212, 213, 214, 215, 216, 35), wherein the at least one communication signal and the reflection signal are received by a receiver (222, 33) and wherein the receiver (222, 33) knows its own position and a location of the at least one sender (217, 218, 219, 220, 221, 34), wherein a propagation time difference of the communication signal and the reflection signal is established by the receiver (222, 33), wherein a Doppler frequency produced by a relative movement of the object (211, 212, 213, 214, 215, 216, 35) with respect to a baseline between the receiver (222, 33) and the sender (217, 218, 219, 220, 221, 34) is established by the receiver (222, 33) from the at least one communication signal and the reflection signal, characterized in that, by means of a temporal observation of a change in the Doppler frequency, a relative speed-dependent distance curve is assigned thereto by the receiver (222, 33), the course of which relative speed-dependent distance curve contains the position of the at least one object (211, 212, 213, 214, 215, 216, 35).
Method for preparing a composite electrode material, comprising: - a 1 st step to prepare a viscous solution containing at least one polymer P1 having a weight composition in heteroatoms O, N, P or S of 15 % or higher, at least one polymer P2 having a weight composition in heteroatoms O, N, P, or S of 5% or lower, a material imparting electronic conductivity C1, an active electrode material M1 and at least one non-volatile solvent S1; - a 2 nd step to prepare a film from the viscous solution obtained, characterized in that, at the 1 st step, the polymers are added in the pure state or in the form of a solution in a volatile solvent; C1 is added in the pure state or in the form of a suspension or solution in a volatile solvent; M1 is added in the pure state or in the form of a suspension in a volatile solvent; and in that: - P1 is selected from among polyethers, polyesters, polyacrylic polymers, polycarbonates, polyimines, polyamides, polyacrylamides, polyurethanes, polyepoxides and polyphosphazenes, polysulfones; - P2 is selected from among homopolymers and copolymers of vinyl chloride, vinylidene fluoride, vinylidene chloride, ethylene tetrafluoride, chlorotrifluoroethylene, copolymers of vinylidene fluoride and hexafluoropropylene; polyolefins and elastomers; - the non-volatile liquid organic solvent S1 is formed of one or more compounds selected from among linear and cyclic carbonates; - C1 is formed of graphite, carbon fibres, carbon nanowires, carbon nanotubes or electronically conducting polymers. - a 1 st step to prepare a viscous solution containing at least one polymer P1 having a weight composition in heteroatoms O, N, P or S of 15 % or higher, at least one polymer P2 having a weight composition in heteroatoms O, N, P, or S of 5% or lower, a material imparting electronic conductivity C1, an active electrode material M1 and at least one non-volatile solvent S1; - a 2 nd step to prepare a film from the viscous solution obtained, - P1 is selected from among polyethers, polyesters, polyacrylic polymers, polycarbonates, polyimines, polyamides, polyacrylamides, polyurethanes, polyepoxides and polyphosphazenes, polysulfones; - P2 is selected from among homopolymers and copolymers of vinyl chloride, vinylidene fluoride, vinylidene chloride, ethylene tetrafluoride, chlorotrifluoroethylene, copolymers of vinylidene fluoride and hexafluoropropylene; polyolefins and elastomers; - the non-volatile liquid organic solvent S1 is formed of one or more compounds selected from among linear and cyclic carbonates; - C1 is formed of graphite, carbon fibres, carbon nanowires, carbon nanotubes or electronically conducting polymers.
A method of producing a hydrophobic porous alumina comprising the steps of: i) providing a slurry comprising an alumina compound which includes aluminum oxide hydroxide (AIOOH), boehmite or pseudoboehmite, the slurry having a pH equal to or greater than 7; ii) adding an organic composition comprising carboxylic acids with alkyl hydrocarbon chains having a carbon length less than 10, to the slurry to form an acidic modified slurry, wherein the organic composition content relative to the content of alumina compound in the acidic modified slurry is between 0.5 and 10 % wt; the acidic modified slurry having a pH of between 3 and less than 7; iii) hydrothermally aging the acidic modified slurry to form a hydrothermally aged slurry; and iv) drying the hydrothermally aged slurry. i) providing a slurry comprising an alumina compound which includes aluminum oxide hydroxide (AIOOH), boehmite or pseudoboehmite, the slurry having a pH equal to or greater than 7; ii) adding an organic composition comprising carboxylic acids with alkyl hydrocarbon chains having a carbon length less than 10, to the slurry to form an acidic modified slurry, wherein the organic composition content relative to the content of alumina compound in the acidic modified slurry is between 0.5 and 10 % wt; the acidic modified slurry having a pH of between 3 and less than 7; iii) hydrothermally aging the acidic modified slurry to form a hydrothermally aged slurry; and iv) drying the hydrothermally aged slurry.
Test system having at least one test disc (1, 1'), an isolator and an evaluation unit for testing the seal of a glove, which is installed in a particular port of the isolator, wherein the test disc (1, 1') is connected to the port in a hermetically sealed manner, wherein the glove and the test disc (1, 1') define a glove volume, which is placed under excess pressure by the test disc (1, 1'), wherein the test disc (1, 1') has a pressure-measuring device with a microprocessor and a memory for recording and storing a glove volume pressure profile and a data interface, characterised in that the test disc (1, 1') is configured by means of a reading device to determine both the identity of the glove by reading a first identification element, which is arranged on the glove, and the identity of the port by reading a second identification element, which is arranged on the port.
A filament yarn winding apparatus comprising: a spinning machine; and a winder, the winder comprising: a first roller configured to receive a plurality of yarns from the spinning machine; a bobbin holder holding a plurality of bobbins each configured to wind up a corresponding one of the plurality of yarns from the spinning machine; a second roller orthogonal to an axis of the bobbin holder, the second roller being configured to distribute the plurality of yarns sent from the first roller to the plurality of bobbins; and traverse support point guides serving as a support point of traverse for the plurality of yarns sent from the second roller onto the plurality of bobbins, wherein the second roller is movable between a winding operation position (a) and a threading operation position (b), the winding operation position (a) being a normal position for yarn paths of the plurality of yarns during a winding operation, the threading operation position (b) being lower than the winding operation position (a). a spinning machine; and a winder, the winder comprising: a first roller configured to receive a plurality of yarns from the spinning machine; a bobbin holder holding a plurality of bobbins each configured to wind up a corresponding one of the plurality of yarns from the spinning machine; a second roller orthogonal to an axis of the bobbin holder, the second roller being configured to distribute the plurality of yarns sent from the first roller to the plurality of bobbins; and a first roller configured to receive a plurality of yarns from the spinning machine; a bobbin holder holding a plurality of bobbins each configured to wind up a corresponding one of the plurality of yarns from the spinning machine; a second roller orthogonal to an axis of the bobbin holder, the second roller being configured to distribute the plurality of yarns sent from the first roller to the plurality of bobbins; and
A wristband-type handset including a) a worn part to be worn on a wrist, b) a cartilage conduction vibration source (36, 38, 40) provided in the worn part configured to conduct vibration to the wrist and c) a speaker configured to generate air-conducted sound, characterized in that the wristband-type handset further comprises: d) a variable-directivity microphone; and e) a controller for switching directivity of the variable-directivity microphone according to whether the cartilage conduction vibration source (36, 38, 40) is used in combination with the variable-directivity microphone or whether the speaker is used in combination with the variable-directivity microphone. a) a worn part to be worn on a wrist, b) a cartilage conduction vibration source (36, 38, 40) provided in the worn part configured to conduct vibration to the wrist and c) a speaker configured to generate air-conducted sound, d) a variable-directivity microphone; and e) a controller for switching directivity of the variable-directivity microphone according to whether the cartilage conduction vibration source (36, 38, 40) is used in combination with the variable-directivity microphone or whether the speaker is used in combination with the variable-directivity microphone.
Power cable for providing power to a downhole tool situated within a deep well, comprising a plurality of stranded cable cores, characterized in that each cable core comprises - an inner conductor comprising a first conductive material, - an armour core layer surrounding the inner conductor comprising a second conductive material having higher tensile strength than the first conductive material and - an outer conducting core layer surrounding the armour core layer, comprising a third conductive material, wherein the inner conductor, the armour core layer and the outer conducting core layer are electrically connected to each other along a major part of the cable core's longitudinal length. - an inner conductor comprising a first conductive material, - an armour core layer surrounding the inner conductor comprising a second conductive material having higher tensile strength than the first conductive material and - an outer conducting core layer surrounding the armour core layer, comprising a third conductive material,
A method for transmitting a buffer status report, performed by a terminal comprising a plurality of subscriber identification modules, SIMs, for connecting to a same operator network, comprising: determining whether a first SIM in the plurality of SIMs has a first physical uplink shared channel resource for transmitting a first buffer status report in response to that the first SIM transmits the first buffer status report to a base station; querying, in the plurality of SIMs, a second SIM having a second physical uplink shared channel resource for transmitting a second buffer status report to the base station in response to that the first SIM does not have the first physical uplink shared channel resource; and transmitting the first buffer status report and an association relationship between the first buffer status report and the first SIM to the base station on the second physical uplink shared channel resource through the second SIM. determining whether a first SIM in the plurality of SIMs has a first physical uplink shared channel resource for transmitting a first buffer status report in response to that the first SIM transmits the first buffer status report to a base station; querying, in the plurality of SIMs, a second SIM having a second physical uplink shared channel resource for transmitting a second buffer status report to the base station in response to that the first SIM does not have the first physical uplink shared channel resource; and transmitting the first buffer status report and an association relationship between the first buffer status report and the first SIM to the base station on the second physical uplink shared channel resource through the second SIM.
A system for providing rapid contrast therapy, the system comprising: a cold reservoir configured to hold a cold liquid, the cold reservoir including a first liquid level sensor to measure a level of the cold liquid; a cold therapy supply valve in fluid communication with the cold reservoir, the cold therapy supply valve directing a flow of the cold liquid to a therapy device; a hot reservoir configured to hold a hot liquid, the hot reservoir including a second liquid level sensor to measure a level of the hot liquid; a hot therapy supply valve in fluid communication with the hot reservoir, the hot therapy supply valve directing a flow of the hot liquid to the therapy device; and a return valve directing return flow from the therapy device to at least one of the hot and cold reservoirs; and a controller directing operation of the cold and hot therapy supply valves to control the flow of the cold liquid and the hot liquid to the therapy device, the controller directing operation of the return valve to control the return liquid flowing from the therapy device to at least one of the cold and hot reservoirs, characterized in that the controller directs the return flow to either the cold reservoir or the hot reservoir depending on the measured liquid level in each of the cold and hot reservoirs such that the measured liquid level in the cold and hot reservoirs does not exceed a corresponding maximum liquid level or fall below a corresponding minimum liquid level. a cold reservoir configured to hold a cold liquid, the cold reservoir including a first liquid level sensor to measure a level of the cold liquid; a cold therapy supply valve in fluid communication with the cold reservoir, the cold therapy supply valve directing a flow of the cold liquid to a therapy device; a hot reservoir configured to hold a hot liquid, the hot reservoir including a second liquid level sensor to measure a level of the hot liquid; a hot therapy supply valve in fluid communication with the hot reservoir, the hot therapy supply valve directing a flow of the hot liquid to the therapy device; and a return valve directing return flow from the therapy device to at least one of the hot and cold reservoirs; and a controller directing operation of the cold and hot therapy supply valves to control the flow of the cold liquid and the hot liquid to the therapy device, the controller directing operation of the return valve to control the return liquid flowing from the therapy device to at least one of the cold and hot reservoirs, characterized in that the controller directs the return flow to either the cold reservoir or the hot reservoir depending on the measured liquid level in each of the cold and hot reservoirs such that the measured liquid level in the cold and hot reservoirs does not exceed a corresponding maximum liquid level or fall below a corresponding minimum liquid level.
A porous silica particle having: (i) an average circularity of 0.1 to 0.5; (ii) a pore volume (Pv) of 1.0 to 2.0 ml/g; (iii) a mode of diameter (Dm) of 50 to 600 μm; and (iv) a ratio of a maximum particle diameter (D 100) to the mode of diameter (Dm), (D 100 /Dm), of 3.0 or less; (v) a maximum value of a pore diameter (PD 100) of 15 to 50 nm; (vi) a minimum value of a pore diameter (PD 0) of 2 to 5 nm; (vii) a ratio of the maximum value to the minimum value (PD 100 /PD 0) of 5 to 10. (i) an average circularity of 0.1 to 0.5; (ii) a pore volume (Pv) of 1.0 to 2.0 ml/g; (iii) a mode of diameter (Dm) of 50 to 600 μm; and (iv) a ratio of a maximum particle diameter (D 100) to the mode of diameter (Dm), (D 100 /Dm), of 3.0 or less; (v) a maximum value of a pore diameter (PD 100) of 15 to 50 nm; (vi) a minimum value of a pore diameter (PD 0) of 2 to 5 nm; (vii) a ratio of the maximum value to the minimum value (PD 100 /PD 0) of 5 to 10.
A high strength corrosion-resistant tubing comprising in percent by weight: 35 to 55% Ni, 12 to 25% Cr, 0.5 to 5% Mo, up to 3% Cu, 2.1 to 4.5% Nb, 0.5 to 3% Ti, 0.05 to 1.0% Al, 0.005 to 0.04% C, balance Fe plus incidental impurities and deoxidizes and wherein the composition of the tubing satisfies the equation: Nb − 7.75 C Al + Ti = 0.5 to 9 wherein the tubing in an age hardened condition has a microstructure that is free from continuous networks of secondary phases along its grain boundaries, has a minimum 0.2% yield strength of 862 MPa at room temperature and has an impact strength of at least 54 N m at negative 59°C.
A solar composition comprising: - an aqueous phase; - a fatty phase; - hydroxypropyl starch phosphate (INCI); - sodium starch octenylsuccinate (INCI); - at least one solar filter derived from triazine characterised in that the fatty phase represents between 20% and 70% of the total weight of the composition and in that the composition is free of emulsifier. - an aqueous phase; - a fatty phase; - hydroxypropyl starch phosphate (INCI); - sodium starch octenylsuccinate (INCI); - at least one solar filter derived from triazine characterised in that the fatty phase represents between 20% and 70% of the total weight of the composition and in that the composition is free of emulsifier.
A Discontinuous reception, DRX, method of a User Equipment, UE, in a mobile communication system, comprising: receiving setting information from a network, the setting information including a first DRX cycle length and a second DRX cycle length for a predetermined data service; if a new transmission of data occurs at the UE, performing a DRX using the first DRX cycle length; and if both a new transmission of data and a new reception of data do not occur at the UE during a predetermined time, performing a DRX using a second DRX cycle length. receiving setting information from a network, the setting information including a first DRX cycle length and a second DRX cycle length for a predetermined data service; if a new transmission of data occurs at the UE, performing a DRX using the first DRX cycle length; and if both a new transmission of data and a new reception of data do not occur at the UE during a predetermined time, performing a DRX using a second DRX cycle length.