mhurhangee/patent-ind-claim-en huggingface dataset:
An electrode assembly for secondary battery, comprising: a cathode; an anode; and a separator interposed between the cathode and the anode, wherein a bonding interface between the electrode and the separator bonded by heating and/or compression is partially bonded to 30% to 90% of the size of an entire interface between the electrode and the separator; characterized in that one surface or both surfaces of the separator facing the electrodes are modified by a plasma discharging process, and a portion on the one surface or both surfaces of the separator modified by the plasma discharging process corresponds to a portion on the bonding interface between the electrode and the separator bonded by heating and/or compression. a cathode; an anode; and a separator interposed between the cathode and the anode, wherein a bonding interface between the electrode and the separator bonded by heating and/or compression is partially bonded to 30% to 90% of the size of an entire interface between the electrode and the separator; characterized in that one surface or both surfaces of the separator facing the electrodes are modified by a plasma discharging process, and a portion on the one surface or both surfaces of the separator modified by the plasma discharging process corresponds to a portion on the bonding interface between the electrode and the separator bonded by heating and/or compression.
Wet rotor pump with an electric motor that drives a pump impeller , comprising a stator with a stator assembly and a rotor that are separated from each other by a can , which is at a distance from the stator to form an air gap , in which the rotor, the can and the pump impeller form a cartridge , characterised in that the can has resilient projections that centre and secure the cartridge inside the stator assembly.
Device for the testing, in particular the high-frequency testing, of a test item , for example of an electrical machine or a converter, having: - a simulation unit for the simulation of an electrical energy storage with the aid of a simulation model, and - an electrical connecting line , by way of which the test item can be connected to the simulation unit , wherein the device has a compensation impedance (Z K ) for the compensation of an impedance resulting from a line inductance (L L ) of the connecting line , characterised in that , the compensation impedance (Z K ) is arranged such that, in a connected state of the test item, it is electrically arranged in parallel with the test item . - a simulation unit for the simulation of an electrical energy storage with the aid of a simulation model, and - an electrical connecting line , by way of which the test item can be connected to the simulation unit , wherein the device has a compensation impedance (Z K ) for the compensation of an impedance resulting from a line inductance (L L ) of the connecting line , characterised in that , the compensation impedance (Z K ) is arranged such that, in a connected state of the test item, it is electrically arranged in parallel with the test item .
A method for detecting continuous injection during the operation of an internal combustion engine comprising an injection system having a high-pressure accumulator for a fuel, wherein - a high pressure in the injection system is monitored as a function of time, wherein - in order to detect continuous injection, it is checked whether the high pressure has dropped by a predetermined continuous injection differential pressure value (Δp P ) within a predetermined continuous injection time interval (Δt L ), wherein - it is checked whether a dump valve, which connects the high-pressure accumulator to a fuel reservoir , has responded, wherein - continuous injection is detected when - a dump valve has not responded in a predetermined checking time interval (Δt M ) before the dropping of the high pressure, and when - the high pressure has dropped by the predetermined continuous injection differential pressure value (Δp P ) within the predetermined continuous injection time interval (Δt L ), wherein - the continuous injection checking is started at a starting time if the high pressure falls below a high pressure setpoint value (p S ) by a predetermined starting differential pressure value (e S ). - a high pressure in the injection system is monitored as a function of time, wherein - in order to detect continuous injection, it is checked whether the high pressure has dropped by a predetermined continuous injection differential pressure value (Δp P ) within a predetermined continuous injection time interval (Δt L ), wherein - it is checked whether a dump valve, which connects the high-pressure accumulator to a fuel reservoir , has responded, wherein - continuous injection is detected when - a dump valve has not responded in a predetermined checking time interval (Δt M ) before the dropping of the high pressure, and when - the high pressure has dropped by the predetermined continuous injection differential pressure value (Δp P ) within the predetermined continuous injection time interval (Δt L ), wherein - the continuous injection checking is started at a starting time if the high pressure falls below a high pressure setpoint value (p S ) by a predetermined starting differential pressure value (e S ).
A method for operating a peristaltic pumping mechanism , the pumping mechanism comprising an at least partially compressible pumping element having an inlet and an outlet , the pumping mechanism configured to receive a fluid through the inlet, the method comprising: peristaltically manipulating a first portion of the at least partially compressible pumping element wherein the inlet is upstream of the outlet, the first portion disposed between the inlet and the outlet, to cause a fluid to flow out of the outlet at a first flow rate that varies periodically between a first maximum and a first minimum at a first frequency; the method characterized by : manipulating a second portion of the at least partially compressible pumping element that is disposed between the first portion and the outlet at a second frequency that is a harmonic of the first frequency and different than the first frequency, to modify flow out of the outlet by a second flow rate that varies periodically about zero, wherein the sum of the first and second flow rates has a second maximum and a second minimum that are less than the respective first maximum and first minimum.
Method for managing data for connecting to an equipment (GW) via a network, the method comprising: - a step of reception, by a referencing server (SDNS), from said equipment, of connection data to said equipment and of at least one authentication token constituting an authentication datum of the set consisting of the equipment and a user of said equipment; - a step of referencing of said equipment by the referencing server by storage in a database (DB), of the connection data received in association with at least one referencing key generated by the server, the referencing key comprising said at least one authentication token; - a step of reception, by the server, originating from a terminal (MT), of at least one request to obtain connection data comprising said referencing key, said referencing key comprising the authentication token generated by the terminal; - step of transmission to said terminal of the connection data stored in association with the received reference key, if the received reference key is located in the database, - the referencing server being a domain name server, the referencing key consisting of a domain name of which said authentication token constitutes a subdomain, a part of the domain name being stored in the equipment, in the referencing server and in the terminal in an initial configuration step. - a step of reception, by a referencing server (SDNS), from said equipment, of connection data to said equipment and of at least one authentication token constituting an authentication datum of the set consisting of the equipment and a user of said equipment; - a step of referencing of said equipment by the referencing server by storage in a database (DB), of the connection data received in association with at least one referencing key generated by the server, the referencing key comprising said at least one authentication token; - a step of reception, by the server, originating from a terminal (MT), of at least one request to obtain connection data comprising said referencing key, said referencing key comprising the authentication token generated by the terminal; - step of transmission to said terminal of the connection data stored in association with the received reference key, if the received reference key is located in the database, - the referencing server being a domain name server, the referencing key consisting of a domain name of which said authentication token constitutes a subdomain, a part of the domain name being stored in the equipment, in the referencing server and in the terminal in an initial configuration step.
A flat plate assembly comprising: a pair of plates , each plate having first and second opposing surfaces; one or more radio frequency, RF, signal paths provided in at least one surface of at least one of said plates; characterized in that the flat plate assembly further comprises one or more bond channels provided in the at least one surface of a first of the pair of plates proximate at least a portion of said signal paths; and one or more relief channels provided in the at least one surface of a second of the plates, wherein at least one of said relief channels is disposed around and spaced apart from a perimeter of said bond channels, the at least one of said relief channels has an aspect ratio and a shape which defines one or more wick regions such that in response to an adhesive disposed in at least one of said bond channels and pressure applied to said plates causes the adhesive to wick to a surface of said plates in the one or more wick regions. a pair of plates , each plate having first and second opposing surfaces; one or more radio frequency, RF, signal paths provided in at least one surface of at least one of said plates; characterized in that the flat plate assembly further comprises one or more bond channels provided in the at least one surface of a first of the pair of plates proximate at least a portion of said signal paths; and one or more relief channels provided in the at least one surface of a second of the plates, wherein at least one of said relief channels is disposed around and spaced apart from a perimeter of said bond channels, the at least one of said relief channels has an aspect ratio and a shape which defines one or more wick regions such that in response to an adhesive disposed in at least one of said bond channels and pressure applied to said plates causes the adhesive to wick to a surface of said plates in the one or more wick regions.
A method for control of a solar thermal power plant which comprises at least one unit with an input valve and with a solar collector , in which method input parameters are detected for the at least one unit, said input parameters comprising (i) a time (t) of day, (ii) a temperature (T out ) which characterises an output temperature of heat transfer fluid at the at least one unit , (iii) a variable (DNI) which characterises solar radiation conditions, and (iv) an input valve parameter (Av) which characterises an aperture opening at the input valve , respective fuzzy set parameters are assigned to the input parameters according to a first rule set (R1) in a fuzzification device , an inference device links and evaluates the fuzzy set parameters according to a second rule set (R2) and fuzzy set result parameters are produced, and output parameters are produced from fuzzy set result parameters according to a third rule set (R3) in a defuzzification device , said output parameters comprising (i) an opening parameter (fA) which defines an opening of the input valve, and (ii) a focussing parameter (fF) which defines a focussing of the at least one solar collector ; and in which the at least one unit is controlled and/or adjusted by means of at least one output parameter. (i) a time (t) of day, (ii) a temperature (T out ) which characterises an output temperature of heat transfer fluid at the at least one unit , (iii) a variable (DNI) which characterises solar radiation conditions, and (iv) an input valve parameter (Av) which characterises an aperture opening at the input valve , respective fuzzy set parameters are assigned to the input parameters according to a first rule set (R1) in a fuzzification device , an inference device links and evaluates the fuzzy set parameters according to a second rule set (R2) and fuzzy set result parameters are produced, and output parameters are produced from fuzzy set result parameters according to a third rule set (R3) in a defuzzification device , said output parameters comprising (i) an opening parameter (fA) which defines an opening of the input valve, and (ii) a focussing parameter (fF) which defines a focussing of the at least one solar collector ; and in which the at least one unit is controlled and/or adjusted by means of at least one output parameter. (i) an opening parameter (fA) which defines an opening of the input valve, and (ii) a focussing parameter (fF) which defines a focussing of the at least one solar collector ; and in which the at least one unit is controlled and/or adjusted by means of at least one output parameter.
A method of surveilling mixing and separation of a suspension comprising solid phase particles for separation of an analyte, comprising the steps of - mixing or separating a suspension comprising solid phase particles from a liquid in a vessel, wherein said vessel comprises an open top end and a closed bottom and is comprised in a multiwell plate; - illuminating said vessel with a light source; - detecting light illuminated by said light source with said detecting device, wherein said detecting device is positioned above said vessel, wherein the detected light is a measure of the particle distribution of solid phase particles present in said liquid, wherein the detecting of light comprises acquiring images of the illuminated light, - Measuring and calculating particle distribution from these images of light by a control unit, wherein the measurement is based on the reduced amount of light passing the liquid in the presence of solid phase particles, wherein said particle distribution is measured when separation is terminated wherein said control unit identifies individual vessels in which separation was insufficient, and wherein said vessels are then flagged by the control unit as invalid for the remainder of the analytical process. - mixing or separating a suspension comprising solid phase particles from a liquid in a vessel, wherein said vessel comprises an open top end and a closed bottom and is comprised in a multiwell plate; - illuminating said vessel with a light source; - detecting light illuminated by said light source with said detecting device, wherein said detecting device is positioned above said vessel, wherein the detected light is a measure of the particle distribution of solid phase particles present in said liquid, wherein the detecting of light comprises acquiring images of the illuminated light, - Measuring and calculating particle distribution from these images of light by a control unit, wherein the measurement is based on the reduced amount of light passing the liquid in the presence of solid phase particles, wherein said particle distribution is measured when separation is terminated
A headset for a helmet , the headset comprising a speaker unit , a boom microphone and a skull microphone , characterized in that the headset further comprises a switch configured to activate the boom microphone or the skull microphone based on the position of the boom microphone , wherein the boom microphone comprises a rotating element enabling that the boom microphone is movable between a plurality of positions of the boom microphone , wherein the rotating element is mechanically mountable to the speaker unit or to the helmet , and wherein the headset further comprises an actuator arranged to the rotating element , wherein when the boom microphone is in the use position, the actuator is far from the switch arranged to the speaker unit and the switch is in its first state, thereby causing that the switch is configured to connect the ground or signal of the boom microphone and disconnect the ground or signal of the skull microphone , respectively, to activate the boom microphone and deactivate the skull microphone , and when the boom microphone is in the non-use position, the actuator is in a close vicinity to the switch and the switch is in its second state, thereby causing that the switch is configured to disconnect the ground or signal of the boom microphone and connect the ground or signal of the skull microphone , respectively, to deactivate the boom microphone and activate the skull microphone . wherein the headset further comprises an actuator arranged to the rotating element , wherein when the boom microphone is in the use position, the actuator is far from the switch arranged to the speaker unit and the switch is in its first state, thereby causing that the switch is configured to connect the ground or signal of the boom microphone and disconnect the ground or signal of the skull microphone , respectively, to activate the boom microphone and deactivate the skull microphone , and when the boom microphone is in the non-use position, the actuator is in a close vicinity to the switch and the switch is in its second state, thereby causing that the switch is configured to disconnect the ground or signal of the boom microphone and connect the ground or signal of the skull microphone , respectively, to deactivate the boom microphone and activate the skull microphone .
An apparatus for preparing an oligomer, the apparatus comprising: a reactor for oligomerizing a feed stream containing a monomer; a stirrer inserted into a hole formed in an upper portion of the reactor ; and a solvent transfer line extending inward from a side of the reactor ; wherein the stirrer includes a rotating shaft vertically extending downward from the upper portion of the reactor , and a blade having a conical shape whose vertex is positioned at a lower end of the rotating shaft and outer diameter of the blade increases from a bottom toward a top, and wherein the solvent transfer line has a plurality of spray nozzles formed in a direction toward the blade , wherein an outer surface of the blade includes an inclined portion inclined at a predetermined angle from the vertex to the top about the rotating shaft , the solvent transfer line includes a spray portion in which the plurality of spray nozzles are formed, and the spray portion has a slope corresponding to the inclined potion and is disposed to be spaced apart from the inclined portion by a predetermined interval, wherein the apparatus has a configuration capable of removing contaminants accumulated on the outer surface of the blade when a solvent is sprayed toward an outer surface of the blade through the plurality of spray nozzles formed in the solvent transfer line and the stirrer rotates. a reactor for oligomerizing a feed stream containing a monomer; a stirrer inserted into a hole formed in an upper portion of the reactor ; and a solvent transfer line extending inward from a side of the reactor ; wherein the stirrer includes a rotating shaft vertically extending downward from the upper portion of the reactor , and a blade having a conical shape whose vertex is positioned at a lower end of the rotating shaft and outer diameter of the blade increases from a bottom toward a top, and wherein the solvent transfer line has a plurality of spray nozzles formed in a direction toward the blade , wherein an outer surface of the blade includes an inclined portion inclined at a predetermined angle from the vertex to the top about the rotating shaft , the solvent transfer line includes a spray portion in which the plurality of spray nozzles are formed, and the spray portion has a slope corresponding to the inclined potion and is disposed to be spaced apart from the inclined portion by a predetermined interval, wherein the apparatus has a configuration capable of removing contaminants accumulated on the outer surface of the blade when a solvent is sprayed toward an outer surface of the blade through the plurality of spray nozzles formed in the solvent transfer line and the stirrer rotates.
Apparatus for the additive manufacturing of three-dimensional objects comprising at least one work station , which is configured for the implementation of at least one work process in the course of the additive manufacturing of three-dimensional objects, wherein at least one movable, in particular slidable transport trolley , in particular on the operator side, is provided, which includes a frame structure comprising a holding fixture , which consists of a receiving area that is arranged within the frame structure for a powder module being mounted, characterised in that the frame structure comprises at least two frame structure sections , wherein a first frame structure section is arranged to be movable relative to a second frame structure section , in particular in a vertically aligned direction of movement, wherein the transport trolley comprises at least one, in particular motoric, lifting unit , which is provided to generate a lifting force, moving the first frame structure section at an offset relative to the second frame structure section .
An encoding method for encoding last position information indicating a position of a last non-zero coefficient in a predetermined order in a current block to be encoded, the encoding method comprising: binarizing (S401, S405) the last position information to generate (i) a binary signal which includes a first signal having a length smaller than or equal to a predetermined maximum length and does not include a second signal or (ii) a binary signal which includes the first signal having the predetermined maximum length and the second signal; first encoding (S402, S405) for arithmetically encoding each of binary symbols included in the first signal using a context switched among a plurality of contexts according to a bit position of the binary symbol; and second encoding (S404, S407) for arithmetically encoding the second signal using a fixed probability when the binary signal includes the second signal; characterized in that in the first encoding, a binary symbol at a last bit position of the first signal is arithmetically encoded using a context exclusive to the last bit position, when the first signal has the predetermined maximum length; and each of binary symbols at two or more bit positions other than the last bit position of the first signal is arithmetically encoded using a context common to the two or more bit positions. binarizing (S401, S405) the last position information to generate (i) a binary signal which includes a first signal having a length smaller than or equal to a predetermined maximum length and does not include a second signal or (ii) a binary signal which includes the first signal having the predetermined maximum length and the second signal; first encoding (S402, S405) for arithmetically encoding each of binary symbols included in the first signal using a context switched among a plurality of contexts according to a bit position of the binary symbol; and second encoding (S404, S407) for arithmetically encoding the second signal using a fixed probability when the binary signal includes the second signal; characterized in that in the first encoding, a binary symbol at a last bit position of the first signal is arithmetically encoded using a context exclusive to the last bit position, when the first signal has the predetermined maximum length; and each of binary symbols at two or more bit positions other than the last bit position of the first signal is arithmetically encoded using a context common to the two or more bit positions.