mhurhangee/patent-ind-claim-en huggingface dataset:
A lithium-ion battery, comprising a positive electrode plate, wherein the positive electrode plate comprises a positive current collector and a positive active material layer arranged on at least one surface of the positive current collector; a positive active material in the positive active material layer comprises a positive active substance I and a positive active substance II, the positive active substance I being a layered lithium nickel transition metal oxide, and the positive active substance II being an olivine-type li-containing phosphate; and the positive electrode plate satisfies 2.5 ≤ N/(PD×(1-P 1 )×(1-A)) ≤ 21, wherein A is a mass percentage of the positive active substance II in a total weight of the positive active material; wherein A satisfies 2%≤A≤40%; N is a number of particles of the positive active substance I accommodated in the positive active material layer in a thickness direction of the positive active material layer, wherein N is calculated by: making cross sections in the thickness direction of the positive electrode plate at any 10 positions of the positive electrode plate, respectively calculating numbers of arranged particles of the positive active substance I in the thickness direction and denoting as N1, N2, N3, ..., N9, and N10, and calculating an average value of the numbers and denoting as N; wherein N is 6 to 55; PD is a compacted density of the positive electrode plate, measured in g/cm 3 ; wherein PD satisfies 3.1g/cm 3 ≤PD≤3.5g/cm 3 ; and P 1 is a porosity of the positive electrode plate; wherein P 1 satisfies 19%≤P 1 ≤25%. a positive active material in the positive active material layer comprises a positive active substance I and a positive active substance II, the positive active substance I being a layered lithium nickel transition metal oxide, and the positive active substance II being an olivine-type li-containing phosphate; and the positive electrode plate satisfies 2.5 ≤ N/(PD×(1-P 1 )×(1-A)) ≤ 21, wherein A is a mass percentage of the positive active substance II in a total weight of the positive active material; wherein A satisfies 2%≤A≤40%; N is a number of particles of the positive active substance I accommodated in the positive active material layer in a thickness direction of the positive active material layer, wherein N is calculated by: making cross sections in the thickness direction of the positive electrode plate at any 10 positions of the positive electrode plate, respectively calculating numbers of arranged particles of the positive active substance I in the thickness direction and denoting as N1, N2, N3, ..., N9, and N10, and calculating an average value of the numbers and denoting as N; wherein N is 6 to 55; PD is a compacted density of the positive electrode plate, measured in g/cm 3 ; wherein PD satisfies 3.1g/cm 3 ≤PD≤3.5g/cm 3 ; and P 1 is a porosity of the positive electrode plate; wherein P 1 satisfies 19%≤P 1 ≤25%.
A bioactive molecule delivery system comprising: a) a bioactive molecule; and b) a biocompatible and/or biodegradable polymer in the form of nanoparticles covalently derivatized with a radical of formula R optionally via linker, and wherein: ● is the point of attachment to the polymer, or, when a linker is present, to the linker; Ra, Rb and Rc can be the same or different and are selected from methyl and ethyl; G is a C 1 -C 5 linear, branched or cyclic alkyl, optionally substituted with one or more groups selected from hydroxy, carboxyl, carboxylate, 1-pyrrolidinyl, 1-azetidinyl, 1-aziridinyl, sulfhydryl, -NRdRe and -N=NRf; Rd, Re and Rf are independently selected from hydrogen, methyl, ethyl and propyl; m can be zero or 1; -X- is selected form the list of -C(O)-, -NRg-, -S- and -SO 2 -, Rg is selected from hydrogen, methyl, ethyl and propyl; Z is a pharmaceutically acceptable anion; n can be zero or 1, and it can only be zero when G bears a carboxylate; with the proviso that R cannot be a) a bioactive molecule; and b) a biocompatible and/or biodegradable polymer in the form of nanoparticles covalently derivatized with a radical of formula R ● is the point of attachment to the polymer, or, when a linker is present, to the linker; Ra, Rb and Rc can be the same or different and are selected from methyl and ethyl; G is a C 1 -C 5 linear, branched or cyclic alkyl, optionally substituted with one or more groups selected from hydroxy, carboxyl, carboxylate, 1-pyrrolidinyl, 1-azetidinyl, 1-aziridinyl, sulfhydryl, -NRdRe and -N=NRf; Rd, Re and Rf are independently selected from hydrogen, methyl, ethyl and propyl; m can be zero or 1; -X- is selected form the list of -C(O)-, -NRg-, -S- and -SO 2 -, Rg is selected from hydrogen, methyl, ethyl and propyl; Z is a pharmaceutically acceptable anion; n can be zero or 1, and it can only be zero when G bears a carboxylate; with the proviso that R cannot be
A glass article, the glass article comprising from 50 mol% to 65 mol% SiO 2 ; from 10 mol% to 20 mol% Al 2 O 3 ; from 1 mol% to 8 mol% P 2 O 5 ; from 2 mol% to 10 mol% B 2 O 3 ; from 1 mol% to 7 mol% ZnO; and from 14 mol% to 20 mol% Na 2 O, wherein the glass article is ion exchangeable and has a softening point of less than or equal to 825°C, and a high temperature coefficient of thermal expansion of less than or equal to 30 ppm/°C.
Eyewear for a subject having an eye provided with a myopia control solution, said myopia control solution inducing a temporal variation of an ocular feature of said eye, said eyewear comprising: - at least one ophthalmic lens having an adjustable optical feature, to be placed in front of said eye of said subject for improving the vision of the subject; - a control unit , comprising one or more memories and one or more processors , adapted to control said ophthalmic lens by setting said adjustable optical feature to a current value (CV); said one or more memories having in memory data relative to said temporal variation of said ocular feature of said eye, said one or more processors being programmed to determine said current value (CV) of said adjustable optical feature based on said data such as to correct a variable defect of the vision of the subject caused by said temporal variation of said ocular feature of said eye. - at least one ophthalmic lens having an adjustable optical feature, to be placed in front of said eye of said subject for improving the vision of the subject; - a control unit , comprising one or more memories and one or more processors , adapted to control said ophthalmic lens by setting said adjustable optical feature to a current value (CV); said one or more memories having in memory data relative to said temporal variation of said ocular feature of said eye, said one or more processors being programmed to determine said current value (CV) of said adjustable optical feature based on said data such as to correct a variable defect of the vision of the subject caused by said temporal variation of said ocular feature of said eye.
Detection circuit comprising: - a switch , - a photodiode connected to a first main terminal of the switch , - an integrator connected to a second main terminal of the switch and arranged to receive the signal emitted by the photodiode , characterized in that it comprises a circuit for performing alternate switching of the bias of the photodiode between a reverse bias and another state, the switch being configured to be in the blocking state when the photodiode is in the other state. - a switch , - a photodiode connected to a first main terminal of the switch , - an integrator connected to a second main terminal of the switch and arranged to receive the signal emitted by the photodiode ,
Battery case for a traction battery , having a lower housing part which has housing side walls (3.1, 3.2, 3.3, 3.4) and a housing bottom (2.5), having a housing lid which can close the lower housing part (3.5) tightly and is designed to be detachable therefrom, having a stiffening structure with stiffening profiles (7.1, 7. 2), wherein the stiffening structure is provided between the housing bottom (2.5) and the housing lid and is non-detachably connected to the housing lid , wherein the stiffening profiles (7.1, 7.2) are connected to the housing lid with a material bond, characterized in that the stiffening profiles (7.1, 7.2) each form closed first hollow profiles (70.1) together with the housing lid .
Cut off valve for cutting off a communication between an air spring valve and at least one air bellow of a raise and lowering air spring suspension system for a vehicle, especially for a trailer, comprising: - a first port configured to be connected to the air spring valve , and - a second port configured to be connected to the at least one air bellow , wherein the cut off valve is configured to cut off a connection between the first port and the second port in reaction to a receiving of a first pneumatic control pressure, characterized in that the cut off valve is configured to connect the first port and the second port if no first pneumatic control pressure is supplied and/or in reaction to a receiving of a second pneumatic control pressure, wherein the cut- off valve comprises: - a first control port configured to receive the first control pressure, and - a piston with a first side configured to be pressurized by the first control pressure, and - a second control port configured to receive the second control pressure, wherein the piston has a second side configured to be pressurized by the second control pressure and the piston is configured to move the cut off valve in a connection position to connect the first port and the second port if the second side is pressurized by the second control pressure, and - a spring element configured to move the cut off valve in the connection position if no first control pressure is supplied. - a first port configured to be connected to the air spring valve , and - a second port configured to be connected to the at least one air bellow , wherein the cut off valve is configured to cut off a connection between the first port and the second port in reaction to a receiving of a first pneumatic control pressure, characterized in that the cut off valve is configured to connect the first port and the second port if no first pneumatic control pressure is supplied and/or in reaction to a receiving of a second pneumatic control pressure, the cut off valve is configured to cut off a connection between the first port and the second port in reaction to a receiving of a first pneumatic control pressure, characterized in that the cut off valve is configured to connect the first port and the second port if no first pneumatic control pressure is supplied and/or in reaction to a receiving of a second pneumatic control pressure, - a first control port configured to receive the first control pressure, and - a piston with a first side configured to be pressurized by the first control pressure, and - a second control port configured to receive the second control pressure, wherein the piston has a second side configured to be pressurized by the second control pressure and the piston is configured to move the cut off valve in a connection position to connect the first port and the second port if the second side is pressurized by the second control pressure, and - a spring element configured to move the cut off valve in the connection position if no first control pressure is supplied.
An electroluminescent device comprising: a cathode; an anode opposing the cathode, the anode comprising a reflective material of aluminum or silver having a reflectivity from 0.4 to 1; and a functional layer located between the anode and the cathode, the functional layer comprising a chemical compound of Formula I, wherein the functional layer contacts the anode and the reflective material is a conductive material having a work function of 3.5 eV to 4.5 eV: wherein R1 -R6 are independently chosen from the group consisting of halo, nitrile (-CN), nitro (-NO2), sulfonyl (-SO2 R), sulfoxide (-SOR), sulfonamide (-SO2 NR), sulfonate (-SO3 R), trifluoromethyl (-CF3), ester (-CO-OR), amide (-CO-NHR or -CO-NRR'), straight-chain or branched (substituted or unsubstituted) C1 -C12 alkoxy. a cathode; an anode opposing the cathode, the anode comprising a reflective material of aluminum or silver having a reflectivity from 0.4 to 1; and a functional layer located between the anode and the cathode, the functional layer comprising a chemical compound of Formula I, wherein the functional layer contacts the anode and the reflective material is a conductive material having a work function of 3.5 eV to 4.5 eV: wherein R1 -R6 are independently chosen from the group consisting of halo, nitrile (-CN), nitro (-NO2), sulfonyl (-SO2 R), sulfoxide (-SOR), sulfonamide (-SO2 NR), sulfonate (-SO3 R), trifluoromethyl (-CF3), ester (-CO-OR), amide (-CO-NHR or -CO-NRR'), straight-chain or branched (substituted or unsubstituted) C1 -C12 alkoxy.
A remote radio head , the remote radio head being operable to communicate information with a central unit and the remote radio head being operable to transmit a transmit signal to a base station transceiver of a mobile communication system using two or more transmit and receive antennas , wherein the remote radio head comprises at least two duplexer filters coupled respectively to the two or more transmit and receive antennas, each of the at least two duplexer filters being configured to separate transmission and reception paths of a corresponding transmit and receive antenna ; only one power amplifier in the transmission path wherein the power amplifier is followed by a switch ; the power amplifier being configured to amplify the transmit signal to generate an amplified transmit signal; and the switch being operable to substantially switch the amplified transmit signal between the two or more transmit and receive antennas , wherein the switch is configured to provide the amplified transmit signal to the duplexer filter corresponding to the selected transmit and receive antenna .
A secondary battery device comprising; an anode comprising a layer of Aluminum, a membrane sandwiched with said anode , an electrolyte including first ions containing Aluminum and having a positive charge and including second ions containing Aluminum and having a negative charge and said electrolyte impregnating said membrane to carry an ion current through said membrane , a cathode sandwiched with said membrane and disposed in spaced and parallel relationship with said anode , and characterized by , said electrolyte consisting essentially of glycerol and said first ions containing Aluminum and said second ions containing Aluminum dispersed in said glycerol for migrating between and reacting with said anode of Aluminum and said cathode to charge and discharge said secondary battery device .
A heating element with temperature control, comprising: a heating body , the heating body has a first surface and an opposite second surface ; a heating wire is arranged on the first surface and a temperature controlling wire is arranged on the second surface ; a heating pin , one end thereof is coupled with one end of the heating wire ; a temperature controlling pin , one end thereof is coupled with the temperature controlling wire ; a common pin , one end thereof is coupled with an opposite end of the heating wire and an opposite end of the temperature controlling wire , characterized in that the heating wire and the temperature controlling wire are mirror-symmetrically set.
A method for monitoring a data flow (PF) in a communication network (CN), said method comprising: a) associating said data flow (PF) with a class of monitoring associated with a service of monitoring to be applied to said data flow (PF) by marking data units (Pki) of said data flow (PF) by setting a feature of said data units (Pki) to a value indicating said class of monitoring; b) determining said class of monitoring by detecting said feature in said data units (Pki) and associating said data units (Pki) with said service of monitoring on the basis of said class of monitoring; and c) applying said service of monitoring for monitoring said data flow (PF), wherein said applying said service of monitoring is performed according to a monitoring policy which is associated with said service of monitoring and specifies one or more monitoring actions to be performed on said marked data units (Pki), and wherein said marking comprises subdividing said data flow (PF) in first blocks and second blocks, said first blocks alternating in time with said second blocks, by setting said feature of the data units (Pki) of said first blocks to said value indicating said class of monitoring, wherein said value indicating said class of monitoring is higher than 1, and setting said feature of the data units (Pki) of said second blocks to a predetermined value equal to 1. a) associating said data flow (PF) with a class of monitoring associated with a service of monitoring to be applied to said data flow (PF) by marking data units (Pki) of said data flow (PF) by setting a feature of said data units (Pki) to a value indicating said class of monitoring; b) determining said class of monitoring by detecting said feature in said data units (Pki) and associating said data units (Pki) with said service of monitoring on the basis of said class of monitoring; and c) applying said service of monitoring for monitoring said data flow (PF), wherein said applying said service of monitoring is performed according to a monitoring policy which is associated with said service of monitoring and specifies one or more monitoring actions to be performed on said marked data units (Pki), and wherein said marking comprises subdividing said data flow (PF) in first blocks and second blocks, said first blocks alternating in time with said second blocks, by setting said feature of the data units (Pki) of said first blocks to said value indicating said class of monitoring, wherein said value indicating said class of monitoring is higher than 1, and setting said feature of the data units (Pki) of said second blocks to a predetermined value equal to 1.
A redox flow cell membrane comprising a porous membrane that has a mean flow pore size of not more than 30 nm, that has a thickness of not more than 500 μm, and that has an air flow rate of not less than 0.1 ml/s·cm 2 , wherein the redox flow cell membrane permits permeation of hydrogen ions, wherein the porous membrane is made of a fluorine-based resin, wherein the mean flow pore size represents a value measured in accordance with ASTM F316-86, and the air flow rate is calculated by measuring gurley seconds in accordance with the JISP8117 gurley tester method, wherein the redox flow cell membrane is used for a V-V-based redox flow cell.
A surface layer material of a hot rolling mill roll which is used for a surface layer of a hot rolling mill composite roll, the material having a chemical composition consisting of, by mass%, C: 2.4% or more and 3.5% or less, Si: 1.2% or more and 2.4% or less, Mn: 0.2% or more and 2.0% or less, Cr: 0.8% or more and 2.1% or less, Mo: 0.3% or more and 1.1% or less, Ni: 3.0% or more and 7.0% or less, V: 1.2% or more and 2.2% or less, Nb: 0.1% or more and 0.8% or less, REM: 0.0005% or more and 0.1% or less, Al: 0.003% or more and 0.05% or less, optionally B: 0.001% or more and 0.05% or less, one or two selected from Ca: 0.04% or less and Ti: 0.03% or less, one or two selected from Co: 2.0% or less and W: 2.0% or less, and the balance being Fe and inevitable impurities, wherein the contents of C, Cr, V, Nb, REM, and Al satisfy relational expressions and below: Cr + 0.2 ≤ C − 0.24 × V + 0.13 × Nb ≤ 3.0 0.01 ≤ REM / Al ≤ 3.2 where C, Cr, V, Nb, REM, and Al respectively represent the contents (mass%) of corresponding chemical elements.
An agent that reduces the binding of CD47 to SIRPα, wherein the agent is selected from an anti-CD47 antibody, an anti-SIRPa antibody, a soluble SIRPα polypeptide or a fusion protein comprising a SIRPα polypeptide, for use in a method of treating, reducing or preventing cancer, the method comprising: contacting a population of cells comprising the targeted tumor cells and a population of immune cells with: (i) the agent that reduces the binding of CD47 to SIRPα; (ii) an agent that agonizes an immune costimulatory molecule, wherein the agent is an anti-CD137 antibody; and (iii) a tumor-specific antibody; in a dose effective to increase depletion of the targeted cells, wherein the contacting is performed on a mammal in vivo. (i) the agent that reduces the binding of CD47 to SIRPα; (ii) an agent that agonizes an immune costimulatory molecule, wherein the agent is an anti-CD137 antibody; and (iii) a tumor-specific antibody;
Method for classifying a measurement biological sample, comprising: - acquisition of at least one DNA melting curve of the measurement biological sample, called at least one measurement curve, - determination that the measurement biological sample belongs to a defined group among different possible groups, by analysis of descriptors originating from the at least one measurement curve, each one of the acquisition step and determination step involving the use of a technical mean , characterized in that the descriptors comprise one or more points of the second derivative of each measurement curve, said or each of said points comprising a value of the second derivative of the melting curve for a specific temperature value. - acquisition of at least one DNA melting curve of the measurement biological sample, called at least one measurement curve, - determination that the measurement biological sample belongs to a defined group among different possible groups, by analysis of descriptors originating from the at least one measurement curve,