mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a machine tool , in particular an angle grinder, comprising a tool that can be rotatably brought into operative connection with a driven shaft , the machine tool having a drive device for actuating the driven shaft , a control device for actuating the drive device , and at least one sensor device operatively connected to the control device , the method comprising the steps of: - determining a speed value of the driven shaft , - determining a speed value of the tool using the sensor device , which interacts with the tool , - controlling an output device and/or controlling, in a predefined manner, the drive device by means of the control device when a difference between the determined speed value of the driven shaft and the determined speed value of the tool is greater than a defined limit value. - determining a speed value of the driven shaft , - determining a speed value of the tool using the sensor device , which interacts with the tool , - controlling an output device and/or controlling, in a predefined manner, the drive device by means of the control device when a difference between the determined speed value of the driven shaft and the determined speed value of the tool is greater than a defined limit value.
A process for the preparation of lithium fluoride, LiF, comprising the following steps: a) preparing a solution or a suspension comprising Li-X and a base, where -X is selected from -OH, -CO 3 , -HCO 3 , -Cl and -SO 4 , said solution or suspension having a pH above 12.0, preferably a pH from 12.5 to 13.5; b) heating said solution or suspension (a) at a temperature from 40°C to 90°C, preferably from 70°C to 85°C; c) adding to said heated and stirred solution or suspension (b) a solution of H 2 SiF 6 while maintaining the pH above 12.0, preferably above pH 12.5, to obtain a LiF precipitate. a) preparing a solution or a suspension comprising Li-X and a base, where -X is selected from -OH, -CO 3 , -HCO 3 , -Cl and -SO 4 , said solution or suspension having a pH above 12.0, preferably a pH from 12.5 to 13.5; b) heating said solution or suspension (a) at a temperature from 40°C to 90°C, preferably from 70°C to 85°C; c) adding to said heated and stirred solution or suspension (b) a solution of H 2 SiF 6 while maintaining the pH above 12.0, preferably above pH 12.5, to obtain a LiF precipitate.
A method of preparing a library for sequencing, comprising: (a) in a coupled reaction, (i) contacting a population of nucleic acid fragments with a tailing enzyme to produce tailed fragments, and (ii) ligating to the tailed fragments a sequencing adapter with a ligase to produce adapter-tagged fragments, wherein (i) and (ii) occur in a single reaction mixture and in a single reaction vessel; and (b) separating adapter-tagged fragments from the tailing enzyme and the ligase to produce separated adapter-tagged fragments and, optionally, separated tailing enzyme and/or separated ligase. (a) in a coupled reaction, (i) contacting a population of nucleic acid fragments with a tailing enzyme to produce tailed fragments, and (ii) ligating to the tailed fragments a sequencing adapter with a ligase to produce adapter-tagged fragments, wherein (i) and (ii) occur in a single reaction mixture and in a single reaction vessel; and (b) separating adapter-tagged fragments from the tailing enzyme and the ligase to produce separated adapter-tagged fragments and, optionally, separated tailing enzyme and/or separated ligase.
Use of an electromagnetic energy-absorbing optical product, wherein said optical product is a composite, comprising: a) a polymeric substrate and b) a composite coating, said composite coating comprising a first layer comprising a polyionic binder and a second layer comprising an electromagnetic energy-absorbing insoluble particle, wherein each of said first layer and said second layer include a binding group component which together form a complimentary binding group pair; wherein said electromagnetic energy-absorbing insoluble particle is a pigment, and wherein the term "insoluble" means that the particle does not substantially dissolve in the composition used to form the second layer and exists as a particle in the optical product structure; for coloring an opaque article by application thereto, wherein the opaque article is a vehicle; a vehicle panel, a vehicle part and a portion thereof. a) a polymeric substrate and b) a composite coating, said composite coating comprising a first layer comprising a polyionic binder and a second layer comprising an electromagnetic energy-absorbing insoluble particle, wherein each of said first layer and said second layer include a binding group component which together form a complimentary binding group pair; wherein said electromagnetic energy-absorbing insoluble particle is a pigment, and wherein the term "insoluble" means that the particle does not substantially dissolve in the composition used to form the second layer and exists as a particle in the optical product structure;
A data transmission method, wherein the method comprises: receiving, by user equipment , a first message sent by a control plane network element or a user plane network element , wherein the first message comprises a correspondence between a first quality of service identifier, and a first reflective quality of service identifier RQI; obtaining, by the user equipment , a second message sent by the user plane network element ; and if the second message does not carry a second reflective quality of service identifier RQI, generating, by the user equipment , a first quality of service rule based on the second message and the correspondence between the first quality of service identifier and the first RQI, wherein the second RQI is used to instruct the user equipment to activate a reflective quality of service RQ mechanism, wherein the first quality of service identifier is a next generation QoS index, NQI, wherein the second message includes at least one of an aging time, an RQI use time, an RQI use granularity, an RQI use mode, or a use granularity of the aging time. receiving, by user equipment , a first message sent by a control plane network element or a user plane network element , wherein the first message comprises a correspondence between a first quality of service identifier, and a first reflective quality of service identifier RQI; obtaining, by the user equipment , a second message sent by the user plane network element ; and if the second message does not carry a second reflective quality of service identifier RQI, generating, by the user equipment , a first quality of service rule based on the second message and the correspondence between the first quality of service identifier and the first RQI, wherein the second RQI is used to instruct the user equipment to activate a reflective quality of service RQ mechanism, wherein the first quality of service identifier is a next generation QoS index, NQI, wherein the second message includes at least one of an aging time, an RQI use time, an RQI use granularity, an RQI use mode, or a use granularity of the aging time.
A method for determining water hardness comprising the steps of: a) Providing water to be analyzed on a surface; b) Applying a voltage to the water such that deposits are precipitated on the surface; characterized by the steps of: c) Determining the mass of the deposits by means of a surface acoustic wave sensor ; d) Determining the water hardness from the mass determined in step c), wherein in additional steps c2) carried out after step b) the water hardness is additionally determined by means of a radiation source radiating the deposits and a radiation detector detecting radiation emitted from the deposits . a) Providing water to be analyzed on a surface; b) Applying a voltage to the water such that deposits are precipitated on the surface; characterized by the steps of: c) Determining the mass of the deposits by means of a surface acoustic wave sensor ; d) Determining the water hardness from the mass determined in step c),
Steel with a density of less than 7.25 kg/dm 3 and consisting of, in wt%, C: up to 0.20% Si: 0.1 - 3.50% Mn: 0.1 - 3.50% N: up to 0.020% S: up to 0.40% P: up to 0.009% Al: 10.0 - 25.0% Ti: 0.55 - 10.0% Cr: up to 6.0% Mo: up to 3.0% Ni: up to 4.0% V: up to 1.0% W: up to 1.0% Cu: up to 4% B: up to 0.08% Nb: up to 1.5% remainder iron and unavoidable impurities caused during production, wherein the structure of the steel has more than 85 vol% ferrite and up to 10 vol% austenite and as the remainder contents of intermetallic phases and proportions of carbide, nitride, bainite or perlite.
A block copolymer of formula I: where the moiety comprises an alternating copolymer of CO 2 and one or more epoxides; and the moiety comprises a saturated or unsaturated hydrocarbon; wherein the moiety comprises a hydrocarbon segment having more than 80 carbon atoms. where the moiety comprises an alternating copolymer of CO 2 and one or more epoxides; and the moiety comprises a saturated or unsaturated hydrocarbon; wherein the moiety comprises a hydrocarbon segment having more than 80 carbon atoms.
An oil suspension concentrate composition comprising a) from 50 to 200 gram / liter of an active ingredient, wherein the active ingredient comprises chlorantraniliprole; b) from 100 to 150 gram / liter of a dispersing agent comprising a fatty alcohol ethoxylate, a propylene-oxide/ethylene-oxide block copolymer, a polyvinylpyrrolidone and a naphtalenesulfonic acid salt; c) from 15 to 35 gram / liter of an emulsifying agent comprising a hydroxystearic acid-polyethylene glycol, an ethoxylated castor oil and a dodecyl benzene sulfonic acid; d) from 50 to 100 gram/ liter of a thickening agent, e) from 150 to 250 gram / liter of a polyether modified polysiloxane; and f) the rest an oil being an ester of a fatty acid, wherein the sum of components adds up to one liter. a) from 50 to 200 gram / liter of an active ingredient, wherein the active ingredient comprises chlorantraniliprole; b) from 100 to 150 gram / liter of a dispersing agent comprising a fatty alcohol ethoxylate, a propylene-oxide/ethylene-oxide block copolymer, a polyvinylpyrrolidone and a naphtalenesulfonic acid salt; c) from 15 to 35 gram / liter of an emulsifying agent comprising a hydroxystearic acid-polyethylene glycol, an ethoxylated castor oil and a dodecyl benzene sulfonic acid; d) from 50 to 100 gram/ liter of a thickening agent, e) from 150 to 250 gram / liter of a polyether modified polysiloxane; and f) the rest an oil being an ester of a fatty acid,
A method for generating a certificate for a security token of a user by an ID token of the same user, wherein a certificate of a document PKI is stored in the ID token and the ID token has a protected memory area, in which there are stored a private key (105; 187) associated with the certificate of the document PKI, one or more attributes , and time information (107, TA') received via a communication interface of the ID token, wherein a certificate of an authorisation PKI is stored in the security token, wherein a write authorisation for write access by the security token to the protected memory area of the ID token is specified in the certificate of the authorisation PKI, the method having the following steps: - authenticating the user to the ID token and to the security token, - mutually authenticating the ID token and the security token with use of the certificate of the document PKI and of the certificate of the authorisation PKI, - generating a cryptographic key pair consisting of a private key and a public key using the security token, - performing the write access to the protected memory area of the ID token by means of the security token in order to store the public key of the generated key pair in the ID token, - performing read access to the protected memory area by means of the ID token in order to read the public key, the time information, and at least the one attribute, - generating a data set , which contains the public key, the time information, and the at least one attribute, by means of the ID token, - signing the data set with the private key stored in the protected memory area by means of the ID token in order to generate the certificate, - outputting the certificate by means of the ID token. - authenticating the user to the ID token and to the security token, - mutually authenticating the ID token and the security token with use of the certificate of the document PKI and of the certificate of the authorisation PKI, - generating a cryptographic key pair consisting of a private key and a public key using the security token, - performing the write access to the protected memory area of the ID token by means of the security token in order to store the public key of the generated key pair in the ID token, - performing read access to the protected memory area by means of the ID token in order to read the public key, the time information, and at least the one attribute, - generating a data set , which contains the public key, the time information, and the at least one attribute, by means of the ID token, - signing the data set with the private key stored in the protected memory area by means of the ID token in order to generate the certificate, - outputting the certificate by means of the ID token.
A control device that outputs a plurality of pulses from a plurality of ports (ch1-ch18), wherein each pulse of the plurality of pulses has the same cycle, wherein each pulse of the plurality of pulses has a duty cycle set independently, the control device comprising: a timer for counting time; a schedule creation section configured to create a schedule in which on-timing and off-timing of the plurality of pulses are designated; a pulse output section configured to turn on and off the pulses in accordance with the schedule; and characterized by the schedule creation section being configured to create the schedule such that the on-timings and the off-timings of the plurality of pulses are respectively not close to each other, based on the set duty cycle and the cycle of the pulses, wherein the on-timings or the off-timings of two of the plurality of pulses are close to each other when a difference in the on-timings or off-timings of the two of the plurality of pulses is less than a predetermined time; a setting section configured to set, in the timer for counting time, time, from a time point where the timer finishes counting a time already set, to on-timing or off-timing of a pulse to be first turned on or off after the time point, in accordance with the schedule, wherein the pulse output section is configured to turn on or off the pulse when the timer finishes counting the set time. a timer for counting time; a schedule creation section configured to create a schedule in which on-timing and off-timing of the plurality of pulses are designated; a pulse output section configured to turn on and off the pulses in accordance with the schedule; and characterized by the schedule creation section being configured to create the schedule such that the on-timings and the off-timings of the plurality of pulses are respectively not close to each other, based on the set duty cycle and the cycle of the pulses, wherein the on-timings or the off-timings of two of the plurality of pulses are close to each other when a difference in the on-timings or off-timings of the two of the plurality of pulses is less than a predetermined time; a setting section configured to set, in the timer for counting time, time, from a time point where the timer finishes counting a time already set, to on-timing or off-timing of a pulse to be first turned on or off after the time point, in accordance with the schedule, wherein the pulse output section is configured to turn on or off the pulse when the timer finishes counting the set time.
An ear set device comprising: a main body ; and one or more earphones configured to output a response signal, wherein at least one of the one or more earphones includes: a first detecting unit configured to detect whether the one or more earphones are attached to a user, wherein the main body includes a communication unit configured to perform wireless communication with the one or more earphones , a second detecting unit configured to detect a location of the main body , and a control unit configured to, based on a determination that the main body is inside a vehicle and a determination that the vehicle is operating while the one or more earphones are attached to the user, receive, from the vehicle , information related to an operation of the vehicle and output a response signal corresponding to the received information through the one or more earphones . a main body ; and one or more earphones configured to output a response signal, wherein at least one of the one or more earphones includes: a first detecting unit configured to detect whether the one or more earphones are attached to a user, a first detecting unit configured to detect whether the one or more earphones are attached to a user, wherein the main body includes a communication unit configured to perform wireless communication with the one or more earphones , a second detecting unit configured to detect a location of the main body , and a control unit configured to, based on a determination that the main body is inside a vehicle and a determination that the vehicle is operating while the one or more earphones are attached to the user, receive, from the vehicle , information related to an operation of the vehicle and output a response signal corresponding to the received information through the one or more earphones . a communication unit configured to perform wireless communication with the one or more earphones , a second detecting unit configured to detect a location of the main body , and a control unit configured to, based on a determination that the main body is inside a vehicle and a determination that the vehicle is operating while the one or more earphones are attached to the user, receive, from the vehicle , information related to an operation of the vehicle and output a response signal corresponding to the received information through the one or more earphones .
A data transmission method, wherein the data transmission method is applied to a first communications device in an Ethernet ring network, the first communications device detects (S800a) a failure on a first Ethernet interface, and the method comprises: receiving (S801), by the first Ethernet interface of the first communications device, a first packet, wherein the first Ethernet interface is an Ethernet interface used by the first communications device for connecting to a second communications device; determining (S802), by the first communications device, whether first indication information in the first packet indicates that the first packet is a multi-fed packet in a multi-fed and selective receiving mechanism which means that a source device sends at least M identical packets to a destination device through M different transmission paths, and the destination device receives one of the at least M identical packets and drops the other redundant packets in the at least M packets, where M is a positive integer greater than or equal to 2, wherein the multi-fed packet is any one of the at least M identical packets transmitted on the M different transmission paths between the source device and the destination device; and dropping (S803), by the first communications device, the first packet when the first indication information indicates that the first packet is a multi-fed packet. receiving (S801), by the first Ethernet interface of the first communications device, a first packet, wherein the first Ethernet interface is an Ethernet interface used by the first communications device for connecting to a second communications device; determining (S802), by the first communications device, whether first indication information in the first packet indicates that the first packet is a multi-fed packet in a multi-fed and selective receiving mechanism which means that a source device sends at least M identical packets to a destination device through M different transmission paths, and the destination device receives one of the at least M identical packets and drops the other redundant packets in the at least M packets, where M is a positive integer greater than or equal to 2, wherein the multi-fed packet is any one of the at least M identical packets transmitted on the M different transmission paths between the source device and the destination device; and dropping (S803), by the first communications device, the first packet when the first indication information indicates that the first packet is a multi-fed packet.
A method for analyzing the material in a target, the method comprising: illuminating the target with a bremsstrahlung photon beam; measuring a first number of photons scattered from a voxel of the target in a first energy range of energies greater than 150 keV and in a first measurement direction using a first collimated detector , wherein the voxel is defined by the three-dimensional intersection of the photon beam and the view of the first collimated detector; measuring a second number of photons scattered from the voxel of the target in a second energy range of energies greater than 150 keV and in a second measurement direction using a second collimated detector , wherein the voxel is defined by the three-dimensional intersection of the photon beam with the view of the second collimated detector; determining a ratio of the first number of photons to the second number of photons; and determining an average atomic number of the material in the voxel using the ratio. illuminating the target with a bremsstrahlung photon beam; measuring a first number of photons scattered from a voxel of the target in a first energy range of energies greater than 150 keV and in a first measurement direction using a first collimated detector , wherein the voxel is defined by the three-dimensional intersection of the photon beam and the view of the first collimated detector; measuring a second number of photons scattered from the voxel of the target in a second energy range of energies greater than 150 keV and in a second measurement direction using a second collimated detector , wherein the voxel is defined by the three-dimensional intersection of the photon beam with the view of the second collimated detector; determining a ratio of the first number of photons to the second number of photons; and determining an average atomic number of the material in the voxel using the ratio.