mhurhangee/patent-ind-claim-en huggingface dataset:
Motor vehicle battery module having an energy content of at least 5 kWh and having the following features: a. the battery module comprises multiple individual batteries , each of which has at least one housing and at least one galvanic cell disposed within the housing, and b. the battery module comprises a joining device , by means of which the individual batteries are assembled to form a battery module that can be handled as a whole, characterized by the feature that: c. the battery module has, on its outside, a spray-applied protective layer that comprises a wax and surrounds at least sections of the battery module , wherein d. the wax is intercalated in a matrix composed of a solidified binder, wherein the wax has a solidification point in the range from 30 to 95°C and the binder after solidification has a thermal stability of at least 100°C. a. the battery module comprises multiple individual batteries , each of which has at least one housing and at least one galvanic cell disposed within the housing, and b. the battery module comprises a joining device , by means of which the individual batteries are assembled to form a battery module that can be handled as a whole, c. the battery module has, on its outside, a spray-applied protective layer that comprises a wax and surrounds at least sections of the battery module , wherein d. the wax is intercalated in a matrix composed of a solidified binder, wherein the wax has a solidification point in the range from 30 to 95°C and the binder after solidification has a thermal stability of at least 100°C.
An automated liquid chromatography system comprising: a housing ; and two or more fluid handling units (1-26), each having a fluidics section , at least two of the fluid handling units being arranged as interchangeable modular components, the interchangeable modular components comprising fluid control valves of at least two different configurations, wherein the housing comprises a liquid handling panel with two or more component positions to receive the interchangeable modular components so as to allow for customization of the position of the respective interchangeable modular component, such that the respective fluidics section is external to the housing , wherein a fluid flow path is formed by a fluidic interconnection arrangement between the interchangeable modular components and configured to be adapted, wherein the system further comprises a system bus and a master control unit for communication with the interchangeable modular components over the system bus , and each interchangeable modular component includes a CPU for the interchangeable modular components to independently perform operations in response to instructions over the system bus . a housing ; and two or more fluid handling units (1-26), each having a fluidics section , at least two of the fluid handling units being arranged as interchangeable modular components, the interchangeable modular components comprising fluid control valves of at least two different configurations, wherein the housing comprises a liquid handling panel with two or more component positions to receive the interchangeable modular components so as to allow for customization of the position of the respective interchangeable modular component, such that the respective fluidics section is external to the housing , wherein a fluid flow path is formed by a fluidic interconnection arrangement between the interchangeable modular components and configured to be adapted, wherein the system further comprises a system bus and a master control unit for communication with the interchangeable modular components over the system bus , and each interchangeable modular component includes a CPU for the interchangeable modular components to independently perform operations in response to instructions over the system bus .
A computer implemented method of analysing packet traffic within a data communication network, the method comprising: identifying a plurality of time stamped packet records originating from a data source within the data communication network, the plurality of time stamped packet records being ordered according to the order in which the packet traffic is transmitted by the data source; at least a first time stamped packet record being within a first time period having a first duration and a second time stamped packet record being within a second different time period having a second duration and differences between successive packet timestamps being the same as they were at the data source; within each of the first time period and the second time period computing a volume of data carried by the plurality of time stamped packet records defined wholly within that time period, the volume of data carried by the plurality of time stamped packet records being identical to the volume of corresponding data originating from the data source; computing a lower bound on the source transmission rate by evaluating a ratio of the volume of data within a time duration defined for each of the first time period and the second time period and a defining a peak transmission rate as the greater of the first ratio and the second ratio. identifying a plurality of time stamped packet records originating from a data source within the data communication network, the plurality of time stamped packet records being ordered according to the order in which the packet traffic is transmitted by the data source; at least a first time stamped packet record being within a first time period having a first duration and a second time stamped packet record being within a second different time period having a second duration and differences between successive packet timestamps being the same as they were at the data source; within each of the first time period and the second time period computing a volume of data carried by the plurality of time stamped packet records defined wholly within that time period, the volume of data carried by the plurality of time stamped packet records being identical to the volume of corresponding data originating from the data source; computing a lower bound on the source transmission rate by evaluating a ratio of the volume of data within a time duration defined for each of the first time period and the second time period and a defining a peak transmission rate as the greater of the first ratio and the second ratio.
A method at a sensor apparatus, the method comprising: calculating a value for a target function based on at least one sensor of the sensor apparatus; determining that the value of the target function is within a defined threshold range for a defined time period, the defined threshold range comprising a first, lower threshold and a second, upper threshold, in response to the determining, turning on at least one gyroscopic sensor; finding a moving variance based on the at least one gyroscopic sensor; verifying that the moving variance of the at least one gyroscopic sensor is below a third threshold for a second defined time period, thereby finding an in-flight state for the sensor apparatus; and turning off transmission from a radio of the sensor apparatus based on the in-flight state. calculating a value for a target function based on at least one sensor of the sensor apparatus; determining that the value of the target function is within a defined threshold range for a defined time period, the defined threshold range comprising a first, lower threshold and a second, upper threshold, in response to the determining, turning on at least one gyroscopic sensor; finding a moving variance based on the at least one gyroscopic sensor; verifying that the moving variance of the at least one gyroscopic sensor is below a third threshold for a second defined time period, thereby finding an in-flight state for the sensor apparatus; and turning off transmission from a radio of the sensor apparatus based on the in-flight state.
A method for batch processing nginx network isolation spaces, wherein a plurality of network isolation spaces are provided in an nginx server, the method comprising: allocating unique identifiers to respective network isolation spaces, and setting configuration files of the respective network isolation spaces; receiving a control command transmitted by an nginx controller, wherein the control command carries a plurality of unique identifiers pointing to the network isolation spaces; and batch processing the network isolation spaces that the plurality of unique identifiers respectively point to and configuration files of the network isolation spaces pointed to according to the control command; wherein the step of setting configuration files of the respective network isolation spaces comprises: splitting resource types recorded in a preset configuration file to obtain a resource type required by a current network isolation space, and setting the obtained resource type in the configuration file of the current network isolation space. allocating unique identifiers to respective network isolation spaces, and setting configuration files of the respective network isolation spaces; receiving a control command transmitted by an nginx controller, wherein the control command carries a plurality of unique identifiers pointing to the network isolation spaces; and batch processing the network isolation spaces that the plurality of unique identifiers respectively point to and configuration files of the network isolation spaces pointed to according to the control command; wherein the step of setting configuration files of the respective network isolation spaces comprises: splitting resource types recorded in a preset configuration file to obtain a resource type required by a current network isolation space, and setting the obtained resource type in the configuration file of the current network isolation space.
Detector (100;200;300;400) for high-energy ionizing radiation , greater than 100 eV, comprising: - an optical fibre having an outer diameter, called fibre diameter, less than 250 microns, and comprising a fibre core , a first cladding , called useful cladding, surrounding said fibre core and a second cladding , called protective cladding, surrounding said useful cladding , and - a layer of scintillators provided to convert said ionizing radiation into light ; - a portion , called detection portion, arranged over a length of said fibre and comprising a recess formed in the protective cladding , in the useful cladding and in the fibre core; the layer of scintillators being arranged in said recess in contact with the useful cladding and the fibre core , characterized in that the recess extends at least in part inside the core of the fibre so that the layer of scintillators is in direct contact with the inside of the fibre core and with the protective cladding . - an optical fibre having an outer diameter, called fibre diameter, less than 250 microns, and comprising a fibre core , a first cladding , called useful cladding, surrounding said fibre core and a second cladding , called protective cladding, surrounding said useful cladding , and - a layer of scintillators provided to convert said ionizing radiation into light ; - a portion , called detection portion, arranged over a length of said fibre and comprising a recess formed in the protective cladding , in the useful cladding and in the fibre core; the layer of scintillators being arranged in said recess in contact with the useful cladding and the fibre core ,
Condoms with surface hydrophilic and lubricous modifications, characterized in that said condoms are grafted with zwitterions which form lubricious water film in liquid environment to lower the surface friction.
A method for processing an uplink reference signal, performed by a base station, the method comprising: determining a current baseband processing load; and processing each of N received uplink reference signals according to a preset first rule if the baseband processing load is less than a first preset value, wherein N is a positive integer; or processing each uplink reference signal in a signal set according to a preset second rule if the baseband processing load is greater than a second preset value, wherein the second preset value is greater than or equal to the first preset value, the signal set comprises one or more of the N uplink reference signals, and a baseband processing load corresponding to processing an uplink reference signal according to the second rule is less than a baseband processing load corresponding to processing an uplink reference signal according to the first rule. determining a current baseband processing load; and processing each of N received uplink reference signals according to a preset first rule if the baseband processing load is less than a first preset value, wherein N is a positive integer; or processing each uplink reference signal in a signal set according to a preset second rule if the baseband processing load is greater than a second preset value, wherein the second preset value is greater than or equal to the first preset value, the signal set comprises one or more of the N uplink reference signals, and a baseband processing load corresponding to processing an uplink reference signal according to the second rule is less than a baseband processing load corresponding to processing an uplink reference signal according to the first rule.
An apparatus for making a three-dimensionally curved object, said apparatus comprising - a membrane having a moulding surface, - a joint system provided with joints for holding the membrane, - an array of actuators for acting on the joint system, wherein the apparatus is configured such that the membrane is configurable into a predetermined shape by individually adjusting the array of actuators acting on the surface opposite the moulding surface of said membrane , characterised in that the membrane is composed of a mixture of rubber material and magnetic powder and that the joint system is a magnetic joint system provided with magnetic joints for holding the magnetic membrane . - a membrane having a moulding surface, - a joint system provided with joints for holding the membrane, - an array of actuators for acting on the joint system,
A type variable helmet comprising: a half face unit formed to cover an upper region of a head of a user; and an under face unit detachably attached to a lower part of the half face unit and formed to cover a lower region of the head of the user, wherein the under face unit includes a first coupling module formed at a position corresponding to a temporal region of the head of the user, and a second coupling module formed at a position corresponding to an occipital region of the head of the user, and wherein the half face unit includes a third coupling module formed to be coupled to and detached from the first coupling module , and a fourth coupling module formed to be coupled to and detached from the second coupling module , characterized in that : the second coupling module includes a shaft rotation member including: a locking part formed in the form of a hook that protrudes toward an upper part of the under face unit ; a manipulation part that protrudes toward a lower part of the under face unit ; and a hinge part that is disposed between the locking part and the manipulation part and forms a rotating shaft, wherein the fourth coupling module is formed in the form of a groove to which the locking part is locked. a half face unit formed to cover an upper region of a head of a user; and an under face unit detachably attached to a lower part of the half face unit and formed to cover a lower region of the head of the user, wherein the under face unit includes a first coupling module formed at a position corresponding to a temporal region of the head of the user, and a second coupling module formed at a position corresponding to an occipital region of the head of the user, and wherein the half face unit includes a third coupling module formed to be coupled to and detached from the first coupling module , and a fourth coupling module formed to be coupled to and detached from the second coupling module , characterized in that : the second coupling module includes a shaft rotation member including: a locking part formed in the form of a hook that protrudes toward an upper part of the under face unit ; a manipulation part that protrudes toward a lower part of the under face unit ; and a hinge part that is disposed between the locking part and the manipulation part and forms a rotating shaft, wherein the fourth coupling module is formed in the form of a groove to which the locking part is locked. a locking part formed in the form of a hook that protrudes toward an upper part of the under face unit ; a manipulation part that protrudes toward a lower part of the under face unit ; and a hinge part that is disposed between the locking part and the manipulation part and forms a rotating shaft, wherein the fourth coupling module is formed in the form of a groove to which the locking part is locked.
A power supplier , comprising: a substrate ; at least one terminal module , configured to be placed on the substrate , wherein the at least one terminal module comprises a connecting hole configured to be connected to an electrical device to thereby supply power to the electrical device, characterized in that the power supplier further comprises: a wireless communication module , configured to be spliced with the at least one terminal module when the at least one terminal module and the wireless communication module are placed on the substrate . a substrate ; at least one terminal module , configured to be placed on the substrate , wherein the at least one terminal module comprises a connecting hole configured to be connected to an electrical device to thereby supply power to the electrical device, characterized in that the power supplier further comprises: a wireless communication module , configured to be spliced with the at least one terminal module when the at least one terminal module and the wireless communication module are placed on the substrate .
A method, comprising: estimating by Coulomb counting a first state of charge (SOC) measurement for a battery based, at least in part, on a measurement of current supplied to the battery and/or withdrawn from the battery during a first period of time; estimating a rate of change of the current supplied to the battery at a particular constant voltage value during a portion of a first charging operation; accessing a predefined charging current profile for the battery indicating a mapping between measurements of rates of change of current supplied to the battery at the particular constant voltage value and true SOC measurements for the battery; determining a true SOC measurement for the battery at a particular point in time during the portion of the first charging operation based, at least in part, on the mapping of the measurements of the rates of change of current supplied to the battery and the true SOC measurements; and correcting the first SOC measurement to match the true SOC measurement at the particular point in time. estimating by Coulomb counting a first state of charge (SOC) measurement for a battery based, at least in part, on a measurement of current supplied to the battery and/or withdrawn from the battery during a first period of time; estimating a rate of change of the current supplied to the battery at a particular constant voltage value during a portion of a first charging operation; accessing a predefined charging current profile for the battery indicating a mapping between measurements of rates of change of current supplied to the battery at the particular constant voltage value and true SOC measurements for the battery; determining a true SOC measurement for the battery at a particular point in time during the portion of the first charging operation based, at least in part, on the mapping of the measurements of the rates of change of current supplied to the battery and the true SOC measurements; and correcting the first SOC measurement to match the true SOC measurement at the particular point in time.
A recombinant nucleic acid comprising: a CDKL5 nucleic acid sequence, wherein the CDKL5 nucleic acid sequence encodes a CDKL5 polypeptide sequence, wherein the CDKL5 polypeptide sequence comprises SEQ ID NO: 2 or SEQ ID NO: 16; and a TATκ nucleic acid sequence, wherein the TATκ nucleic acid sequence encodes a TATκ polypeptide sequence, wherein the TATκ polypeptide sequence has 90% to 100% sequence identity to SEQ ID NO: 4 and wherein the TATκ nucleic acid sequence is operatively coupled to the CDKL5 nucleic acid sequence and/or the TATκ polypeptide sequence is operatively coupled to the CDKL5 polypeptide sequence. a CDKL5 nucleic acid sequence, wherein the CDKL5 nucleic acid sequence encodes a CDKL5 polypeptide sequence, wherein the CDKL5 polypeptide sequence comprises SEQ ID NO: 2 or SEQ ID NO: 16; and a TATκ nucleic acid sequence, wherein the TATκ nucleic acid sequence encodes a TATκ polypeptide sequence, wherein the TATκ polypeptide sequence has 90% to 100% sequence identity to SEQ ID NO: 4 and wherein the TATκ nucleic acid sequence is operatively coupled to the CDKL5 nucleic acid sequence and/or the TATκ polypeptide sequence is operatively coupled to the CDKL5 polypeptide sequence.
A secondary battery , comprising an electrolytic solution, wherein the electrolytic solution comprises an electrolyte salt and an organic solvent; the electrolyte salt comprises lithium bis(fluorosulfonyl)imide, LiFSI, and lithium hexafluorophosphate, LiPF 6 ; a volumetric molar concentration of the LiFSI in the electrolytic solution is 0.9 mol/L~1.2 mol/L; a volumetric molar concentration of the LiPF 6 in the electrolytic solution is 0.15 mol/L~0.4 mol/L; a ratio of the volumetric molar concentration of the LiFSI to the LiPF 6 is 4-6:1, and the organic solvent comprises ethylene carbonate, EC, and mass percent of the EC in the organic solvent is less than or equal to 10%. the electrolyte salt comprises lithium bis(fluorosulfonyl)imide, LiFSI, and lithium hexafluorophosphate, LiPF 6 ; a volumetric molar concentration of the LiFSI in the electrolytic solution is 0.9 mol/L~1.2 mol/L; a volumetric molar concentration of the LiPF 6 in the electrolytic solution is 0.15 mol/L~0.4 mol/L; a ratio of the volumetric molar concentration of the LiFSI to the LiPF 6 is 4-6:1, and the organic solvent comprises ethylene carbonate, EC, and mass percent of the EC in the organic solvent is less than or equal to 10%.