mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a complex of a substrate, a cured product of a curable composition, and a coating film of a heat-curable coating material, the method comprising: coating a substrate with a curable composition, and thereafter coating with a heat-curable coating material, and then carrying out heating, wherein the heating step is performed before curing of the curable composition; and wherein the curable composition contains a polyoxyalkylene polymer (A) having a hydrolyzable silyl group, and the hydrolyzable silyl group is represented by the following general formula : -SiR a (OR 1 ) 3-a , wherein each R independently represents a hydrocarbon group having 1 to 10 carbon atoms that may have a substituent group formed of a heteroatom-containing group or a halogen atom, each R 1 independently represents a hydrocarbon group having 2 to 10 carbon atoms, and a is 0, 1 or 2. coating a substrate with a curable composition, and thereafter coating with a heat-curable coating material, and then carrying out heating, wherein the heating step is performed before curing of the curable composition; and wherein the curable composition contains a polyoxyalkylene polymer (A) having a hydrolyzable silyl group, and the hydrolyzable silyl group is represented by the following general formula : -SiR a (OR 1 ) 3-a , wherein each R independently represents a hydrocarbon group having 1 to 10 carbon atoms that may have a substituent group formed of a heteroatom-containing group or a halogen atom, each R 1 independently represents a hydrocarbon group having 2 to 10 carbon atoms, and a is 0, 1 or 2.
A method for radio resource control, RRC, state control, comprising: obtaining , by an access network device, RRC connected inactive state indication information of a mobile device from a core network device, wherein the RRC connected inactive state indication information is used to determine whether the mobile device is suitable to enter an RRC connected inactive state, and the RRC connected inactive state is different from an RRC connected state and an RRC idle state; determining , by the access network device, based on the RRC connected inactive state indication information, whether the mobile device is suitable to enter the RRC connected inactive state. obtaining , by an access network device, RRC connected inactive state indication information of a mobile device from a core network device, wherein the RRC connected inactive state indication information is used to determine whether the mobile device is suitable to enter an RRC connected inactive state, and the RRC connected inactive state is different from an RRC connected state and an RRC idle state; determining , by the access network device, based on the RRC connected inactive state indication information, whether the mobile device is suitable to enter the RRC connected inactive state.
A wireless communication system comprising a base band unit, BBU, and at least one remote radio head, RRH, , wherein the BBU and the at least one RRH connect to each other through an optical link, wherein the BBU includes a scheduler , an encoding unit and a transmission unit ,wherein the scheduler is configured to generate control information for a process of a physical layer in wireless communication between the at least one RRH and a terminal and simultaneously output the control information to the encoding unit and the transmission unit , and the control information includes information indicating a modulation scheme, a coding rate, radio resources and transmission power; wherein the encoding unit is configured to generate encoded data by performing encoding on data to be transmitted to the terminal on a basis of the control information and output the encoded data to the transmission unit ; wherein the transmission unit is configured to acquire the control information from the scheduler and transmit the control information to the at least one RRH through the optical link before the encoding unit finishes generating the encoded data, and the transmission unit is further configured to acquire the encoded data from the encoding unit and transmit the encoded data to the at least one RRH through the optical link, and wherein the at least one RRH includes: a reception unit configured to receive the control information and the encoded data from the BBU ; and a signal processing unit configured to start reading the control information received by the reception unit before the encoded data arrives at the at least one RRH , the signal processing unit being further configured to perform signal processing for transmitting the encoded data received by the reception unit to the terminal on a basis of the control information received by the reception unit ) as soon as the signal processing unit completes reading the control information. a reception unit configured to receive the control information and the encoded data from the BBU ; and a signal processing unit configured to start reading the control information received by the reception unit before the encoded data arrives at the at least one RRH , the signal processing unit being further configured to perform signal processing for transmitting the encoded data received by the reception unit to the terminal on a basis of the control information received by the reception unit ) as soon as the signal processing unit completes reading the control information.
A pump , comprising: a sealed chamber ; a movable wall for changing a volume of the sealed chamber ; a vibration actuator for displacing the movable wall to discharge fluid in the sealed chamber to an outside of the sealed chamber ; and a case containing the vibration actuator therein, wherein the vibration actuator includes a movable body which is movable with respect to the case and has a magnet and a coil core portion fixed to the case , the movable body is displaced in the case to displace the movable wall when electrical power is supplied to the coil core portion , three axes perpendicular to each other are respectively defined as an X axis, a Y axis, and a Z axis, when a direction along the X axis is defined as an X axis direction, a direction along the Y axis is defined as a Y axis direction, and a direction along the Z axis direction is defined as a Z axis direction, characterized in that: the movable body is formed in a plate-like shape and in an arc shape so as to correspond to the outer shape of the case , the coil core portion includes a core and a pair of coils wound around the core , the core has a flat plate-like shape and is curved in an arc shape corresponding to the outer shape of the case such that an outer shape of the pump is a concave shape in a planar view from the Y axis direction. a sealed chamber ; a movable wall for changing a volume of the sealed chamber ; a vibration actuator for displacing the movable wall to discharge fluid in the sealed chamber to an outside of the sealed chamber ; and a case containing the vibration actuator therein, wherein the vibration actuator includes a movable body which is movable with respect to the case and has a magnet and a coil core portion fixed to the case , the movable body is displaced in the case to displace the movable wall when electrical power is supplied to the coil core portion , three axes perpendicular to each other are respectively defined as an X axis, a Y axis, and a Z axis, when a direction along the X axis is defined as an X axis direction, a direction along the Y axis is defined as a Y axis direction, and a direction along the Z axis direction is defined as a Z axis direction,
Detection device for the mass of a vehicle trailer which has a trailer coupling and an inertia brake device , wherein the detection device has a sensor arrangement for measuring the tensile force (F) acting on the vehicle trailer in a longitudinal direction and a sensor arrangement for detecting the acceleration acting on the vehicle trailer in a longitudinal direction , and a processing device which is provided and configured for being arranged on the vehicle trailer , wherein the force-measuring sensor arrangement is provided and configured for being arranged on the inertia brake device , and the processing device determines the mass of the vehicle trailer from the signals of the sensor arrangements , characterized in that the force-measuring sensor arrangement has a measuring ring with one or more sensors , which measuring ring is provided and configured for being arranged on a drawbar of the inertia brake device .
A method comprising: initiating, in a blood collection device , a scrub timer having a scrub time period; during the scrub time period, disinfecting tissue of the patient at a proposed needle entry site; and after the scrub time period has elapsed, stopping disinfecting. initiating, in a blood collection device , a scrub timer having a scrub time period; during the scrub time period, disinfecting tissue of the patient at a proposed needle entry site; and after the scrub time period has elapsed, stopping disinfecting.
A combination port for a computing device , the combination port including: a microphone boot ; a microphone coupled to a printed circuit board, PCB, ; a light source coupled to the PCB ; a first cavity defined in a first end portion of the microphone boot , the first cavity defining a first opening at the first end portion of the microphone boot , and a second opening in a wall of the first cavity, the first opening being connected with the second opening, and the microphone being coupled to a side portion of the microphone boot such that a microphone port of the microphone is aligned with the second opening in the wall of the first cavity ; and a second cavity defined in a second end portion of the microphone boot , the light source being disposed in the second cavity , wherein a body portion of the microphone boot is positioned between the first cavity and the second cavity , and the first end portion of the microphone boot is configured to be positioned adjacent to an input/output opening in a housing of the computing device , with the first opening aligned with the input/output opening . a microphone boot ; a microphone coupled to a printed circuit board, PCB, ; a light source coupled to the PCB ; a first cavity defined in a first end portion of the microphone boot , the first cavity defining a first opening at the first end portion of the microphone boot , and a second opening in a wall of the first cavity, the first opening being connected with the second opening, and the microphone being coupled to a side portion of the microphone boot such that a microphone port of the microphone is aligned with the second opening in the wall of the first cavity ; and a second cavity defined in a second end portion of the microphone boot , the light source being disposed in the second cavity , wherein a body portion of the microphone boot is positioned between the first cavity and the second cavity , and the first end portion of the microphone boot is configured to be positioned adjacent to an input/output opening in a housing of the computing device , with the first opening aligned with the input/output opening .
A capping head comprising a supporting structure on which a roto-translation system is mounted, operatively connected to a capping device , wherein the roto-translation system comprises a linear motor and a rotary motor operatively coupled so as to impart a roto-translation motion to the capping device and in that the capping head comprises a suspension system adapted to keep the rotary motor in a raised position even when the linear motor is disconnected or electromagnetically decoupled, wherein the rotary motor comprises a casing that contains a rotor externally coupled to the capping device , and a stator characterized in that the roto-translation system comprises a rod which ends with a wheel adapted to run on a cam, which acts as an emergency lifting means of the capping device , and in that the rotary motor comprises, on an upper surface of the casing , a safety magnet to keep the rotary motor , following said emergency lifting, in a raised position. wherein the rotary motor comprises a casing that contains a rotor externally coupled to the capping device , and a stator characterized in that the roto-translation system comprises a rod which ends with a wheel adapted to run on a cam, which acts as an emergency lifting means of the capping device , and in that the rotary motor comprises, on an upper surface of the casing , a safety magnet to keep the rotary motor , following said emergency lifting, in a raised position.
Method for monitoring the physical state of a suspension means which is connected to an elevator car and can move the same, the suspension means comprising markings along its length which divide the suspension means into segments (S 1 , S 2 , S n ) and which markings can be detected by means of a detection device , characterized in that a strain difference (Δε) of the suspension means is monitored segment by segment, by a first strain (ε 1 ) at a first load (F 1 ) and a second strain (ε 2 ) at a second load (F 2 ) being determined by means of a signal processing unit from a distance between two selected markings detected by the detection device and a strain difference (Δε) representing the elastic behavior of the segment (S 1 , S 2 , S n ) being calculated from the two strains (ε 1 , ε 2 ), wherein the load (F 1 , F 2 ) acting on the suspension means between the two selected markings can be measured by means of a load measuring device .
A method of determining at least one representative temperature value for a female human user for an extended period for use in determining a temperature rise indicative of a date of ovulation, the method comprising: receiving at least a first, a second and a third plurality of temperature measurements obtained from a female human user during at least first, second and third respective extended periods, wherein each extended period comprises at least four hours and wherein the start of each extended period is separated by at least 8 hours, and each extended period is in adjacent 24 hour periods; calculating a representative temperature value for the second extended period, wherein the representative temperature value is calculated using: at least one first temperature value obtained from the first plurality of measurements taken during the first extended period; and at least one second temperature value obtained from a plurality of measurements taken during the second extended period; and at least one third temperature value obtained from the third plurality of measurements taken during the third extended period; and wherein the representative temperature value for the second extended period comprises an average of the at least one first, at least one second and at least one third temperature values, analysing the adjusted representative temperature value for the second extended period to determine if a temperature rise indicative of a date of ovulation has occurred in the second extended period. receiving at least a first, a second and a third plurality of temperature measurements obtained from a female human user during at least first, second and third respective extended periods, wherein each extended period comprises at least four hours and wherein the start of each extended period is separated by at least 8 hours, and each extended period is in adjacent 24 hour periods; calculating a representative temperature value for the second extended period, wherein the representative temperature value is calculated using: at least one first temperature value obtained from the first plurality of measurements taken during the first extended period; and at least one second temperature value obtained from a plurality of measurements taken during the second extended period; and at least one third temperature value obtained from the third plurality of measurements taken during the third extended period; and wherein the representative temperature value for the second extended period comprises an average of the at least one first, at least one second and at least one third temperature values, at least one third temperature value obtained from the third plurality of measurements taken during the third extended period; and wherein the representative temperature value for the second extended period comprises an average of the at least one first, at least one second and at least one third temperature values, analysing the adjusted representative temperature value for the second extended period to determine if a temperature rise indicative of a date of ovulation has occurred in the second extended period.
A diaphragm for a sound generating device, comprising at least one elastomer layer, wherein the elastomer layer is made of an ethylene propylene diene monomer; and the ethylene propylene diene monomer is formed by polymerizing three monomers, the three monomers being an ethylene monomer, a propylene monomer and a non-conjugated diene monomer respectively, characterised by a mass ratio of the ethylene monomer to the propylene monomer ranging from 0.25 to 4, and content of the non-conjugated diene monomer being 1%-15% of total content of the ethylene monomer and the propylene monomer.
Unit for a CNC machining centre with a spindle, which allows the machining of workpieces by means of a multiaxis system, wherein the unit may be in a functional connection with a tool changer for the spindle, wherein the unit comprises an ultrasound cutting member for machining the workpiece, which can be attached to the spindle of the CNC machining centre, characterized in that the ultrasound cutting member comprises a housing that is at least substantially frusto-conical, wherein the base surface of the frusto-conical housing is formed by a pot-like housing , wherein on the base of the pot-like housing , pivot elements are disposed in a circular path, as engaging mandrels for fastening the unit on a tool receptacle of the spindle.
A method for providing at least one product stream, in particular hydrogen, by electrolysis by means of an electrolyzer having a multiplicity of electrolysis cells (16.1) combined to form at least one framework ; wherein electrolyte is discharged from the cells and separated into two phases, and wherein the electrolyte is collected upstream of a pump system ; characterized in that at least the functions of discharge (F1), phase separation (F2) and collection (F3) are carried out integrally together in a multifunctional collection container by means of at least one multifunctional collection container with a regulatable filling level, which is coupled to the cells and which is also usable as a buffered pump supply, wherein the multifunctional collection container is a multifunctional outflow header with an integrated functional scope, the collection (F3) comprising the following two functions: buffering (F4) the electrolyte during a predefinable minimum residence time and temporarily storing (F5) the electrolyte with a predefinable minimum volume or minimum filling level in order to make a minimum volume available as a buffered pump supply.
A blowout preventer for shearing a tubular positioned in a bore extending through the blowout preventer , the blowout preventer comprising: a first shear ram movable towards the tubular, the first shear ram comprising a first blade , the first blade comprising a first outer cutting profile formed from first and second outer blade portions (214A;216A) and a first inner cutting profile ; and a second shear ram positioned opposite the first shear ram with respect to the tubular and movable towards the tubular, the second shear ram comprising a second blade , the second blade comprising a second outer cutting profile formed from third and fourth outer blade portions (214B;216B) and a second inner cutting profile ; wherein for each of the first and second blade (204A;204B), the outer blade portions of the outer cutting profile are positioned on opposite sides of the inner cutting profile and characterised in that the outer blade portions are positioned between an angle of about 120 degrees and an angle of about 140 degrees from each other; and wherein a diameter of the inner cutting profiles is similar to that of a tool joint of the tubular. a first shear ram movable towards the tubular, the first shear ram comprising a first blade , the first blade comprising a first outer cutting profile formed from first and second outer blade portions (214A;216A) and a first inner cutting profile ; and a second shear ram positioned opposite the first shear ram with respect to the tubular and movable towards the tubular, the second shear ram comprising a second blade , the second blade comprising a second outer cutting profile formed from third and fourth outer blade portions (214B;216B) and a second inner cutting profile ; wherein for each of the first and second blade (204A;204B), the outer blade portions of the outer cutting profile are positioned on opposite sides of the inner cutting profile and positioned between an angle of about 120 degrees and an angle of about 140 degrees from each other; and wherein a diameter of the inner cutting profiles is similar to that of a tool joint of the tubular.
A method for in situ remediation of a damaged support row assembly of a three row, roller bearing assembly , the three row, roller bearing assembly rotatively coupling a vessel to a turret , the three row, roller bearing assembly having a radial row assembly and an uplift row assembly disposed between an inner ring connected to the turret and outer upper and lower rings connected to the vessel, the method comprising the steps of: removing the outer upper ring from engagement with the outer lower ring; installing a circumferential support ring on the outer lower ring; installing at least a portion of a remedial support row assembly on the support ring; positioning a circumferential reaction ring above the support ring; connecting the reaction ring to the inner ring secured to the turret; axially displacing the inner ring and turret relative to the outer lower ring and transferring the turret axial loading to the remedial support row assembly between the support ring and the reaction ring; and securing the inner ring and turret in the axially displaced position. removing the outer upper ring from engagement with the outer lower ring; installing a circumferential support ring on the outer lower ring; installing at least a portion of a remedial support row assembly on the support ring; positioning a circumferential reaction ring above the support ring; connecting the reaction ring to the inner ring secured to the turret; axially displacing the inner ring and turret relative to the outer lower ring and transferring the turret axial loading to the remedial support row assembly between the support ring and the reaction ring; and securing the inner ring and turret in the axially displaced position.
Polymorphic form III of N-[2-(6-fluoro-1H-indol-3-yl)ethyl]-3-(2,2,3,3-tetrafluoropropoxy)benzylamine hydrochloride, characterized by an X-Ray powder diffractogram showing peaks at the following 2θ-angles ± 0.10: 4.63°, 6.94 °, 13.89 °, 17.26°, 18.07°, 18.49°, 18.95°, 19.47°, 19.97°, 20.53°, 21.83°, 22.53°, 23.27°, 23.65° and 28.91°.
MOSFET device which is arranged on a substrate comprising a first and a second heavily doped strip which are covered with a first and a second contact, these two strips being separated by a channel which is also on said substrate , said channel being covered with a dielectric layer which is itself topped by a third contact , device in which the first and second strips and the channel have the same type of doping and a type of doping opposite to the substrate, characterized in that a lightly doped thin film is located at the interface between said channel and the dielectric layer , and in that the thin film has the same type of doping as the first and second strips and the channel, thereby creating fixed charges at the channel/dielectric layer interface so that the carriers are repelled from said interface and its defects.