mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a first node for forming a cluster of nodes, the method comprising: obtaining (S210) first information associated with a predetermined number of nodes in the cluster to be formed; determining (S220) an administrative role of the first node based on the obtained first information; as a result of determining that the administrative role of the first node is a first role, sending (S230) a first broadcast message to a plurality of second nodes, the first broadcast message comprising second information for enabling control of timing of a respective response message from two or more second nodes of said plurality of second nodes; receiving (S240) said respective response message from the two or more second nodes; and adding (S250) said two or more second nodes from which said respective response message has been received (S240) to the cluster. obtaining (S210) first information associated with a predetermined number of nodes in the cluster to be formed; determining (S220) an administrative role of the first node based on the obtained first information; as a result of determining that the administrative role of the first node is a first role, sending (S230) a first broadcast message to a plurality of second nodes, the first broadcast message comprising second information for enabling control of timing of a respective response message from two or more second nodes of said plurality of second nodes; receiving (S240) said respective response message from the two or more second nodes; and adding (S250) said two or more second nodes from which said respective response message has been received (S240) to the cluster.
A multi-band radio for use in a wireless network, the multi-band radio comprising: a receiver wherein the receiver comprises: a controller configured to: identify whether a frequency of an input signal is within an intermediate frequency, IF, band, or not, control a first pair of switches to: route the input signal on a first path directly to a first IF filter and the signal processing unit , if it is identified that the frequency of the input signal is within the IF band, and route the input signal on a second path to the first IF filter and the signal processing unit through a first image filter and a first mixer , if it is identified that the frequency of the input signal is not within the IF band, set a frequency of a first local oscillator according to the frequency of the input signal to convert the frequency of the input signal based on an IF frequency for the signal processing unit , if it is identified that the frequency of the input signal is not within the IF band, and control the first local oscillator to be off, if it is identified that the frequency of the input signal is within the IF band, wherein the first mixer is configured to determine an output frequency of a signal output from the first mixer where the input signal routed on the second path is input, based on the set frequency of the first local oscillator . a controller configured to: identify whether a frequency of an input signal is within an intermediate frequency, IF, band, or not, control a first pair of switches to: route the input signal on a first path directly to a first IF filter and the signal processing unit , if it is identified that the frequency of the input signal is within the IF band, and route the input signal on a second path to the first IF filter and the signal processing unit through a first image filter and a first mixer , if it is identified that the frequency of the input signal is not within the IF band, route the input signal on a first path directly to a first IF filter and the signal processing unit , if it is identified that the frequency of the input signal is within the IF band, and route the input signal on a second path to the first IF filter and the signal processing unit through a first image filter and a first mixer , if it is identified that the frequency of the input signal is not within the IF band, set a frequency of a first local oscillator according to the frequency of the input signal to convert the frequency of the input signal based on an IF frequency for the signal processing unit , if it is identified that the frequency of the input signal is not within the IF band, and control the first local oscillator to be off, if it is identified that the frequency of the input signal is within the IF band, wherein the first mixer is configured to determine an output frequency of a signal output from the first mixer where the input signal routed on the second path is input, based on the set frequency of the first local oscillator .
A conveyor system comprising a conveying cylinder rotated by a driving device and adapted to carry and convey items, the driving device comprising a driving device cylinder (A), a motor module mounted in the driving device cylinder (A), the motor module being connected to a reduction gearbox (A1) wherein the motor module comprises: a bearing base having a bearing base casing ; an outer annular surface of the bearing base casing securely mounted on an inner annular surface of the driving device cylinder (A); a stator mounted securely to the bearing base and having a stator casing ; an outer annular surface of the stator casing securely mounted on the inner annular surface of the driving device cylinder (A); an end surface of the stator casing connected to an end surface of the bearing base casing ; a rotor rotatably mounted in the stator , rotatably mounted through the bearing base , and connected to the reduction gearbox (A1); a fixing base mounted securely with the stator and having a fixing base casing ; characterized in that an outer annular surface of the fixing base casing is securely mounted on the inner annular surface of the driving device cylinder (A); an end surface of the fixing base casing connected to the other end surface of the stator casing , which is opposite to the bearing base casing ; and a circuit board mounted in the fixing base and electrically connected to the stator ; wherein: an outer diameter of the bearing base casing , an outer diameter of the stator casing , and an outer diameter of the fixing base casing are the same. a bearing base having a bearing base casing ; an outer annular surface of the bearing base casing securely mounted on an inner annular surface of the driving device cylinder (A); a stator mounted securely to the bearing base and having a stator casing ; an outer annular surface of the stator casing securely mounted on the inner annular surface of the driving device cylinder (A); an end surface of the stator casing connected to an end surface of the bearing base casing ; a rotor rotatably mounted in the stator , rotatably mounted through the bearing base , and connected to the reduction gearbox (A1); a fixing base mounted securely with the stator and having a fixing base casing ; characterized in that an outer annular surface of the fixing base casing is securely mounted on the inner annular surface of the driving device cylinder (A); an end surface of the fixing base casing connected to the other end surface of the stator casing , which is opposite to the bearing base casing ; and a circuit board mounted in the fixing base and electrically connected to the stator ; wherein: an outer diameter of the bearing base casing , an outer diameter of the stator casing , and an outer diameter of the fixing base casing are the same.
A method performed by an arrangement configured to intercept messages transmitted to a target via a communication network managed by a network operator, the arrangement sends to an agent , required information related to the target that communicates via the communication network, the method comprising: intercepting first messages carrying first information which indicates that the first messages are related to a first communication session engaging the target in a first call; sending a first communication identity number, CIN, wherein the first CIN uniquely identifies the first communication session and the required information extracted from the first messages, to the agent; intercepting a second message of a forwarded call transmitted after the first messages of the first call and carrying second information, which partially differs from the first information due to call forwarding and indicates engaging the same target; determining whether the second message is related to the first communication session, by comparing pieces of the first information with pieces of the second information; and sending the first CIN and the required information extracted from the second message to the agent, if determined that the second message is related to the first communication session. intercepting first messages carrying first information which indicates that the first messages are related to a first communication session engaging the target in a first call; sending a first communication identity number, CIN, wherein the first CIN uniquely identifies the first communication session and the required information extracted from the first messages, to the agent; intercepting a second message of a forwarded call transmitted after the first messages of the first call and carrying second information, which partially differs from the first information due to call forwarding and indicates engaging the same target; determining whether the second message is related to the first communication session, by comparing pieces of the first information with pieces of the second information; and sending the first CIN and the required information extracted from the second message to the agent, if determined that the second message is related to the first communication session.
A method for operating a hydraulic device for supplying at least one hydraulic consumer (V), preferably a consumer on a machine for processing plastics and other plasticizable materials, wherein the hydraulic device comprises at least one pump , which has a volumetric conveying characteristic resulting in cyclic pulsing and a servo motor having a plurality of poles resulting in cyclic pulsing, wherein the pressure to the hydraulic consumer (V) is detected by way of a pressure sensor and is supplied as an actual value to a pressure control which adjusts the servo motor , on the basis of a predetermined or predeterminable pressure profile, at the hydraulic consumer (V) to a pressure setpoint value corresponding to a speed setpoint value (n nom ), wherein the rotary angle (φ) of the at least one pump and/or of the servo motor is detected by a rotary encoder , characterised in that the rotary angle (φ) of the at least one pump and/or of the servo motor that is detected by way of the in each case one rotary encoder is correlated to the cyclic pulsing, and in that from this correlation a correction function (Y 1 ) is determined, which multiplied with an operational multiplier (K) is added to the speed setpoint value (n nom ), wherein the sum calculated is transmitted to the pressure control for regulating the pressure setpoint value.
A surgical instrument, comprising: (a) an instrument body ; (b) an ultrasonic transducer assembly rotatably mounted along a longitudinal axis within the instrument body such that the ultrasonic transducer assembly is configured to selectively rotate about the longitudinal axis; an acoustic waveguide configured to threadably couple with the ultrasonic transducer assembly; and an integral torque indicator , including: (i) a first member extending from the acoustic waveguide, and (ii) a second member extending from the ultrasonic transducer assembly, wherein the first and second members are positioned such that the first member is configured to engage the second member as the acoustic waveguide is threadably coupled with the ultrasonic transducer assembly with a predetermined amount of torque, and wherein the first and second members are configured to engage each other to thereby generate a signal indicative of the predetermined amount of torque for a user. (a) an instrument body ; (b) an ultrasonic transducer assembly rotatably mounted along a longitudinal axis within the instrument body such that the ultrasonic transducer assembly is configured to selectively rotate about the longitudinal axis; an acoustic waveguide configured to threadably couple with the ultrasonic transducer assembly; and an integral torque indicator , including: (i) a first member extending from the acoustic waveguide, and (ii) a second member extending from the ultrasonic transducer assembly, wherein the first and second members are positioned such that the first member is configured to engage the second member as the acoustic waveguide is threadably coupled with the ultrasonic transducer assembly with a predetermined amount of torque, and wherein the first and second members are configured to engage each other to thereby generate a signal indicative of the predetermined amount of torque for a user. (i) a first member extending from the acoustic waveguide, and (ii) a second member extending from the ultrasonic transducer assembly, wherein the first and second members are positioned such that the first member is configured to engage the second member as the acoustic waveguide is threadably coupled with the ultrasonic transducer assembly with a predetermined amount of torque, and wherein the first and second members are configured to engage each other to thereby generate a signal indicative of the predetermined amount of torque for a user.
Process for preparing a polymer of formula (I): in which p is equal to 0 or 1, and R 1 is chosen from: - a fluorine atom, and - one or more linear or branched, saturated or unsaturated, fluorinated or nonfluorinated aliphatic chains, said chain(s) being optionally interrupted by one or more heteroatoms, by one or more metalloids and/or by one or more aromatic or nonaromatic, 4- to 6-membered (hetero)cycles, and optionally substituted by one or more groups chosen from the group consisting of hydroxyl, -NH 2 and oxo groups; R 1 being covalently bonded, directly or via a spacer, to the phenyl ring; the process comprising at least the steps consisting in: a) providing a Ziegler-Natta catalytic system comprising a catalyst and a cocatalyst; b) providing monomers of formula (A): in which p and R 1 are as defined above; c) bringing said catalytic system into contact with said monomers of formula (A); d) exposing the mixture formed in step c) to stirring and heating conditions that are suitable for the polymerization of the monomers of formula (A), the mixture in step d) being exposed to a temperature hold of between 60°C and 80°C. - a fluorine atom, and - one or more linear or branched, saturated or unsaturated, fluorinated or nonfluorinated aliphatic chains, said chain(s) being optionally interrupted by one or more heteroatoms, by one or more metalloids and/or by one or more aromatic or nonaromatic, 4- to 6-membered (hetero)cycles, and optionally substituted by one or more groups chosen from the group consisting of hydroxyl, -NH 2 and oxo groups; R 1 being covalently bonded, directly or via a spacer, to the phenyl ring; the process comprising at least the steps consisting in: a) providing a Ziegler-Natta catalytic system comprising a catalyst and a cocatalyst; b) providing monomers of formula (A): in which p and R 1 are as defined above; c) bringing said catalytic system into contact with said monomers of formula (A); d) exposing the mixture formed in step c) to stirring and heating conditions that are suitable for the polymerization of the monomers of formula (A), a) providing a Ziegler-Natta catalytic system comprising a catalyst and a cocatalyst; b) providing monomers of formula (A): in which p and R 1 are as defined above; c) bringing said catalytic system into contact with said monomers of formula (A); d) exposing the mixture formed in step c) to stirring and heating conditions that are suitable for the polymerization of the monomers of formula (A), the mixture in step d) being exposed to a temperature hold of between 60°C and 80°C.
A method for continuously treating polystyrene material comprising: (a) selecting a solid polystyrene material; (b) heating said solid polystyrene material in an extruder to create a molten polystyrene material; (c) filtering said molten polystyrene material; (d) placing said molten polystyrene material through a chemical depolymerization process in a reactor to create a depolymerized polystyrene material; (e) cooling said depolymerized polystyrene material; (f) purifying said depolymerized polystyrene material, and (g) grafting a copolymer/monomer onto said molten depolymerized polystyrene material. (a) selecting a solid polystyrene material; (b) heating said solid polystyrene material in an extruder to create a molten polystyrene material; (c) filtering said molten polystyrene material; (d) placing said molten polystyrene material through a chemical depolymerization process in a reactor to create a depolymerized polystyrene material; (e) cooling said depolymerized polystyrene material; (f) purifying said depolymerized polystyrene material, and (g) grafting a copolymer/monomer onto said molten depolymerized polystyrene material.
A component mounter drive system comprising: a component mounter including a servo motor as a drive source for a drive target of the component mounter , an encoder for detecting rotation of the servo motor , a servo amplifier for performing feedback control of rotation of the servo motor based on detection information of the encoder , and a control device for entering a command value of the feedback control to the servo amplifier ; a motor unit including the servo motor and the encoder , the motor unit being exchangeably attached to a specified portion of the component mounter to which the servo amplifier is attached; and an input means configured to allow an operator to input a motor unit exchange signal to the control device before exchanging the motor unit , wherein the control device , when the motor unit exchange signal is inputted, switches the servo amplifier to a servo off state, maintains system power of the servo amplifier in an on state, initializes the encoder connected to the servo amplifier after the motor unit has been exchanged, and then returns the servo amplifier to a servo on state, wherein the control device is configured to determine whether operation of the motor is stopped before the motor unit exchange signal is inputted and if the operation of the motor is not stopped, prohibit exchange of the motor during operation of the drive target.
An apparatus to treat tissue at a surgical site of a patient, the apparatus comprising: an elongate carrier comprising a nozzle configured to emit a fluid stream; and a probe configured for insertion into a patient, the probe comprising an evacuation lumen to remove material from the surgical site, the evacuation lumen extending to an opening ; characterised in that the carrier is configured to rotate the nozzle toward the opening to direct the fluid stream toward the opening of the evacuation lumen , and in that the carrier is configured to rotate the nozzle away from the opening of the evacuation lumen to resect tissue. an elongate carrier comprising a nozzle configured to emit a fluid stream; and a probe configured for insertion into a patient, the probe comprising an evacuation lumen to remove material from the surgical site, the evacuation lumen extending to an opening ; characterised in that the carrier is configured to rotate the nozzle toward the opening to direct the fluid stream toward the opening of the evacuation lumen , and in that the carrier is configured to rotate the nozzle away from the opening of the evacuation lumen to resect tissue.
Handheld machine tool device at least for a mobile support of a shaft , in particular a drive spindle, of a handheld machine tool in at least one guide track (16a; 16b; 16c) of a protective device (20a; 20b; 20c) that is arrangeable on a tool accommodation region of the handheld machine tool, with at least the protective device (20a; 20b; 20c), with at least one movement unit (22a; 22b; 22c), which is in particular arranged on the protective device (20a; 20b; 20c) and which is configured to support the shaft in such a way that it is movable relative to the protective device (20a; 20b; 20c) at least along the guide track (16a; 16b; 16c), characterised in that at least one distance unit (24a; 24b; 24c), implemented differently from a linear-bearing and/or roller-bearing unit of the movement unit (22a; 22b; 22c), which is arranged, in particular at least partially at least substantially rotationally fixed, on the movement unit (22a; 22b; 22c) and/or on the protective device (20a; 20b; 20c) and is configured to maintain, at least during a movement of the shaft along the guide track (16a; 16b; 16c), a minimum distance of the shaft relative to at least one guiding contour (26a; 26b; 26c) of the guide track (16a; 16b; 16c), the distance unit (24a; 24b; 24c) comprising at least one distance element (30a; 30b; 30c) that is arranged, in particular at least substantially rotationally fixed, on a movably supported guide carriage element (34a; 34b; 34c) of the movement unit (22a; 22b; 22c).
A method for encoding video, comprising: receiving pixel values of pixels in a current digital image frame of a video to be encoded, calculating a mean or a sum of the pixel values of the pixels for blocks of pixels in said current digital image frame to form a group value for each block of pixels, determining a set of available quantization steps comprising a first predetermined quantization step, the method comprising for a first block of pixels: calculating a group value difference between the group value of the first block of pixels and a corresponding group value of a reference block of pixels in a reference frame, for each available quantization step calculating a remainder after division of the group value difference by the respective available quantization step, selecting as selected quantization step the quantization step of the set that results in the smallest remainder, and inter-coding the first block of pixels using the selected quantization step. receiving pixel values of pixels in a current digital image frame of a video to be encoded, calculating a mean or a sum of the pixel values of the pixels for blocks of pixels in said current digital image frame to form a group value for each block of pixels, determining a set of available quantization steps comprising a first predetermined quantization step, the method comprising for a first block of pixels: calculating a group value difference between the group value of the first block of pixels and a corresponding group value of a reference block of pixels in a reference frame, for each available quantization step calculating a remainder after division of the group value difference by the respective available quantization step, selecting as selected quantization step the quantization step of the set that results in the smallest remainder, and inter-coding the first block of pixels using the selected quantization step. calculating a group value difference between the group value of the first block of pixels and a corresponding group value of a reference block of pixels in a reference frame, for each available quantization step calculating a remainder after division of the group value difference by the respective available quantization step, selecting as selected quantization step the quantization step of the set that results in the smallest remainder, and inter-coding the first block of pixels using the selected quantization step.