mhurhangee/patent-ind-claim-en huggingface dataset:
A method operational on a wireless access terminal , of positioning the wireless access terminal , comprising: determining if to retrieve position information corresponding to the access terminal; and in response to the determination: determining system information corresponding to each of a plurality of serving base stations of a network , wherein the system information comprising latitude and longitude associated with each base station of the plurality of base stations; storing the determined system information associated with each of the plurality of base stations as accumulated system information over time in a memory of the wireless access terminal; and storing for each of the plurality of base stations an associated timestamp with the system information; and determining if sufficient system information corresponding to a sufficient number of base stations has been gathered and in response to the determination transmitting the accumulated system information and time stamps for the current serving base station and for at least one prior serving base station, for localization of the access terminal, wherein the associated timestamp is adapted to record the time at which the system information is determined and wherein the accumulated system information and time stamps are accumulated over time as the access terminal moves about the network . determining if to retrieve position information corresponding to the access terminal; and in response to the determination: determining system information corresponding to each of a plurality of serving base stations of a network , wherein the system information comprising latitude and longitude associated with each base station of the plurality of base stations; storing the determined system information associated with each of the plurality of base stations as accumulated system information over time in a memory of the wireless access terminal; and storing for each of the plurality of base stations an associated timestamp with the system information; and determining system information corresponding to each of a plurality of serving base stations of a network , wherein the system information comprising latitude and longitude associated with each base station of the plurality of base stations; storing the determined system information associated with each of the plurality of base stations as accumulated system information over time in a memory of the wireless access terminal; and storing for each of the plurality of base stations an associated timestamp with the system information; and determining if sufficient system information corresponding to a sufficient number of base stations has been gathered and in response to the determination transmitting the accumulated system information and time stamps for the current serving base station and for at least one prior serving base station, for localization of the access terminal, wherein the associated timestamp is adapted to record the time at which the system information is determined and wherein the accumulated system information and time stamps are accumulated over time as the access terminal moves about the network .
A propylene polymer composition comprising: a) from 35 wt% to 65 wt% of a propylene 1-hexene copolymer containing from 10.2 to 13.0% by weight, of 1-hexene derived units having a Melt Flow Rate (MFR, measured according to ASTM D 1238, 230°C/2.16 kg, i.e. at 230°C, with a load of 2.16 kg) from 3.5 to 12.0 g/10 min; b) from 35 wt% to 65 wt% of a propylene ethylene copolymer containing from 1.5 wt% to 6.5 wt% of ethylene derived units, a having a Melt Flow Rate (MFR, measured according to ASTM D 1238, 230°C/2.16 kg, i.e. at 230°C, with a load of 2.16 kg) from 3.5 to 12.0 g/10 min; the sum of the amount of a) and b) being 100. a) from 35 wt% to 65 wt% of a propylene 1-hexene copolymer containing from 10.2 to 13.0% by weight, of 1-hexene derived units having a Melt Flow Rate (MFR, measured according to ASTM D 1238, 230°C/2.16 kg, i.e. at 230°C, with a load of 2.16 kg) from 3.5 to 12.0 g/10 min; b) from 35 wt% to 65 wt% of a propylene ethylene copolymer containing from 1.5 wt% to 6.5 wt% of ethylene derived units, a having a Melt Flow Rate (MFR, measured according to ASTM D 1238, 230°C/2.16 kg, i.e. at 230°C, with a load of 2.16 kg) from 3.5 to 12.0 g/10 min; the sum of the amount of a) and b) being 100.
A mobile station apparatus for transmitting a random access channel to a base station apparatus, the mobile station apparatus comprising: a transmission control information setting device ; and a transmitting device , wherein the mobile station apparatus is characterized in that the transmission control information setting device is adapted to set transmission control information including a reception quality, the reception quality being classified in a class of a plurality of classes, the reception quality being measured immediately before a random access channel, RACH, transmission and including a RACH transmission reason determined from a state of the mobile station at the time of the RACH transmission, and the transmitting device is adapted to select a signature to form a RACH preamble based on the reception quality of the transmission control information, select a frequency region based on the RACH transmission reason of the transmission control information, and transmit the RACH preamble, including the selected signature, on the RACH in the selected frequency region. a transmission control information setting device ; and a transmitting device , wherein the mobile station apparatus is characterized in that the transmission control information setting device is adapted to set transmission control information including a reception quality, the reception quality being classified in a class of a plurality of classes, the reception quality being measured immediately before a random access channel, RACH, transmission and including a RACH transmission reason determined from a state of the mobile station at the time of the RACH transmission, and the transmitting device is adapted to select a signature to form a RACH preamble based on the reception quality of the transmission control information, select a frequency region based on the RACH transmission reason of the transmission control information, and transmit the RACH preamble, including the selected signature, on the RACH in the selected frequency region.
A wearable device used by being attached to a user's skin, the wearable device comprising: a main body unit including a housing and a substrate , the substrate being arranged inside the housing ; an electrode unit including a sensing electrode connected to the main body unit ; and a patch unit including one or more conductive members , the one or more conductive members being configured to electrically connect the electrode unit to the user's skin, wherein the electrode unit includes a shielding layer not to be electrically connected to the main body unit , the shielding layer being conductive with a floating potential, and wherein the shielding layer includes a first shielding region and a second shielding region , and when viewed from a top, the first shielding region being spaced apart from an edge of the main body unit by a certain distance, and characterised in that the main body unit is arranged inside the first shielding region . a main body unit including a housing and a substrate , the substrate being arranged inside the housing ; an electrode unit including a sensing electrode connected to the main body unit ; and a patch unit including one or more conductive members , the one or more conductive members being configured to electrically connect the electrode unit to the user's skin, wherein the electrode unit includes a shielding layer not to be electrically connected to the main body unit , the shielding layer being conductive with a floating potential, and wherein the shielding layer includes a first shielding region and a second shielding region , and when viewed from a top, the first shielding region being spaced apart from an edge of the main body unit by a certain distance, and characterised in that the main body unit is arranged inside the first shielding region .
Method for machining ball tracks and guiding webs of an inner joint part for a constant velocity joint in one clamping, with the method steps: mechanically machining at least a first ball track in a first rotational position; rotating the inner joint part into a second rotational position for machining at least a further ball track , wherein at least one guiding web is mechanically machined during the rotation of the inner joint part from the first rotational position to the second rotational position, characterised in that the guiding webs are machined by a web machining tool with a machining contour which rotates around an axis of rotation (R31) that extends radially to the longitudinal axis (A) of the inner joint part . mechanically machining at least a first ball track in a first rotational position; rotating the inner joint part into a second rotational position for machining at least a further ball track , wherein at least one guiding web is mechanically machined during the rotation of the inner joint part from the first rotational position to the second rotational position, characterised in that the guiding webs are machined by a web machining tool with a machining contour which rotates around an axis of rotation (R31) that extends radially to the longitudinal axis (A) of the inner joint part .
Use of an upflow reactor for producing a dihydroxy compound, said upflow reactor comprising: - a vessel; - a catalyst bed disposed in said vessel; - a distributor in fluid communication with an inlet through which reactants are introduced to said distributor, said distributor being disposed at a lower end of said vessel and comprising a distributor perforation disposed in said distributor, at least part of which distributor perforation is in a direction facing away from said catalyst bed; and - a collector through which said product dihydroxy compound is removed, said collector being disposed at an upper end of said vessel. - a vessel; - a catalyst bed disposed in said vessel; - a distributor in fluid communication with an inlet through which reactants are introduced to said distributor, said distributor being disposed at a lower end of said vessel and comprising a distributor perforation disposed in said distributor, at least part of which distributor perforation is in a direction facing away from said catalyst bed; and - a collector through which said product dihydroxy compound is removed, said collector being disposed at an upper end of said vessel.
An agricultural planter row unit comprising: a first actuator (8110; 8410) connected to a first implement disposed on the agricultural planter row unit ; a second actuator (8120; 8140) connected to a second implement disposed on the agricultural planter row unit , the second implement being different from the first implement ; a fluid control system configured to control fluid flow from a fluid source to each of the first and second actuators (8110, 8120; 8410), the fluid control system including: an inlet valve in a first fluid path in fluid communication with the fluid source and each of the first and second actuators (8110, 8120; 8410); an outlet valve connected to the first fluid path ; and a pressure sensor disposed to measure fluid pressure in a first fluid line forming part of the first fluid path . a first actuator (8110; 8410) connected to a first implement disposed on the agricultural planter row unit ; a second actuator (8120; 8140) connected to a second implement disposed on the agricultural planter row unit , the second implement being different from the first implement ; a fluid control system configured to control fluid flow from a fluid source to each of the first and second actuators (8110, 8120; 8410), the fluid control system including: an inlet valve in a first fluid path in fluid communication with the fluid source and each of the first and second actuators (8110, 8120; 8410); an outlet valve connected to the first fluid path ; and a pressure sensor disposed to measure fluid pressure in a first fluid line forming part of the first fluid path . an inlet valve in a first fluid path in fluid communication with the fluid source and each of the first and second actuators (8110, 8120; 8410); an outlet valve connected to the first fluid path ; and a pressure sensor disposed to measure fluid pressure in a first fluid line forming part of the first fluid path .
A process for the manufacture of a non-skid aluminum tread sheet comprising the steps of: a) providing a molten aluminum alloy; b) continuously casting the alloy in a continuous caster into an aluminum slab having a thickness of 14 to 20 mm and being at a temperature from 400 °C to 550 °C; c) hot rolling in a continuous process the aluminum slab obtained in step b) to form a tread sheet which has a thickness of 1.3 mm to 5.0 mm, wherein hot rolling is carried out in a hot rolling mill having at least two stands comprising at least one hot rolling stand and one pattern rolling stand, and wherein the pattern rolling stand is placed after the at least one hot rolling stand; and d) subjecting the tread sheet obtained in step c) to annealing; wherein the process is carried out without performing any homogenizing, cold rolling, or annealing step before the pattern rolling step. a) providing a molten aluminum alloy; b) continuously casting the alloy in a continuous caster into an aluminum slab having a thickness of 14 to 20 mm and being at a temperature from 400 °C to 550 °C; c) hot rolling in a continuous process the aluminum slab obtained in step b) to form a tread sheet which has a thickness of 1.3 mm to 5.0 mm, wherein hot rolling is carried out in a hot rolling mill having at least two stands comprising at least one hot rolling stand and one pattern rolling stand, and wherein the pattern rolling stand is placed after the at least one hot rolling stand; and d) subjecting the tread sheet obtained in step c) to annealing;
A fiber processing device comprising: a sieve configured to screen material containing fiber; an accumulator configured to accumulate the material discharged from the sieve; and a processor (102; 80, 90) configured to process the material accumulated on the accumulator; wherein the fiber processing device is configured to operate the sieve at a first speed (V1) during processing by the processor; the fiber processing device being further configured to, when the sieve starts from a stopped state, execute a startup operation in which the sieve operates at a lower speed than the first speed for a specific time after the sieve starts operating, wherein the startup operation includes a first operation of increasing the speed per unit time of the sieve for a period of time, and a second operation in which increase in the speed per unit time is less than in the first operation after the period of time. a sieve configured to screen material containing fiber; an accumulator configured to accumulate the material discharged from the sieve; and a processor (102; 80, 90) configured to process the material accumulated on the accumulator; wherein the fiber processing device is configured to operate the sieve at a first speed (V1) during processing by the processor; the fiber processing device being further configured to, when the sieve starts from a stopped state, execute a startup operation in which the sieve operates at a lower speed than the first speed for a specific time after the sieve starts operating, wherein the startup operation includes a first operation of increasing the speed per unit time of the sieve for a period of time, and a second operation in which increase in the speed per unit time is less than in the first operation after the period of time.
A surgical instrument comprising: an end effector comprising jaws transitionable between an open configuration and a closed configuration; a motor operably coupled to the jaws, the motor configured to transition the jaws between the open configuration and the closed configuration; a sensor configured to transmit at least one signal indicative of a tissue compression parameter associated with a tissue between the jaws; and a control circuit coupled to the sensor and the motor, the control circuit configured to: receive the at least one signal; determine a value of the tissue compression parameter based on the at least one signal as the jaws transition from the open configuration to the closed configuration; cause the motor to increase a time to transition the jaws to the closed configuration according to whether the value of the tissue compression parameter is above a first threshold; and characterized in that the control circuit is configured to: provide feedback according to whether the value of the tissue compression parameter is below a second threshold, wherein the feedback comprises a suggestion for adjunct reinforcement when the value of the tissue compression parameter is below the second threshold. an end effector comprising jaws transitionable between an open configuration and a closed configuration; a motor operably coupled to the jaws, the motor configured to transition the jaws between the open configuration and the closed configuration; a sensor configured to transmit at least one signal indicative of a tissue compression parameter associated with a tissue between the jaws; and a control circuit coupled to the sensor and the motor, the control circuit configured to: receive the at least one signal; determine a value of the tissue compression parameter based on the at least one signal as the jaws transition from the open configuration to the closed configuration; cause the motor to increase a time to transition the jaws to the closed configuration according to whether the value of the tissue compression parameter is above a first threshold; and characterized in that the control circuit is configured to: provide feedback according to whether the value of the tissue compression parameter is below a second threshold, wherein the feedback comprises a suggestion for adjunct reinforcement when the value of the tissue compression parameter is below the second threshold. receive the at least one signal; determine a value of the tissue compression parameter based on the at least one signal as the jaws transition from the open configuration to the closed configuration; cause the motor to increase a time to transition the jaws to the closed configuration according to whether the value of the tissue compression parameter is above a first threshold; and characterized in that the control circuit is configured to: provide feedback according to whether the value of the tissue compression parameter is below a second threshold, wherein the feedback comprises a suggestion for adjunct reinforcement when the value of the tissue compression parameter is below the second threshold.
A method for a first Wi-Fi direct WFD device to discover a WiFi display service in a WFD network, the method comprising: generating, at the first WFD device, a service discovery request frame for discovering a service supported by a second WFD device in the WFD network ; transmitting, from the first WFD device, the service discovery request frame to the second WFD device ; and receiving, at the first WFD device, a service discovery response frame from the second WFD device in response to the service discovery request frame , wherein the service discovery request frame and the service discovery response frame are generated by using a generic advertising service GAS initial request frame of 802.11u and a GAS initial response frame of 802.11u, respectively, wherein the GAS initial request frame comprises a service protocol type which comprises an identifier for identifying a WiFi display protocol, and the GAS initial response frame comprises a service protocol type which comprises an identifier for identifying the requested WiFi display protocol. generating, at the first WFD device, a service discovery request frame for discovering a service supported by a second WFD device in the WFD network ; transmitting, from the first WFD device, the service discovery request frame to the second WFD device ; and receiving, at the first WFD device, a service discovery response frame from the second WFD device in response to the service discovery request frame , wherein the service discovery request frame and the service discovery response frame are generated by using a generic advertising service GAS initial request frame of 802.11u and a GAS initial response frame of 802.11u, respectively, wherein the GAS initial request frame comprises a service protocol type which comprises an identifier for identifying a WiFi display protocol, and the GAS initial response frame comprises a service protocol type which comprises an identifier for identifying the requested WiFi display protocol.
Process for generating carbon-based secondary energy carriers or base chemicals by coupling oxyfuel combustion of carbon-based fuels and high-temperature solid electrolyte electrolysis (HT-SOEL) , wherein, for the oxyfuel combustion, oxygen generated from the HT-SOEL is used as an oxidizing agent , and the product gases obtained from the oxyfuel combustion and/or from the cathode chamber of the HT-SOEL, and, optionally, additionally externally supplied hydrogen , are reacted exothermically in a manner known per se to form carbon-based secondary energy carriers or base chemicals , wherein, in the process, heat is coupled out at different temperature levels in such a way that waste heat I from the exothermic synthesis of carbon-based secondary energy carriers or base chemicals is used to generate steam for the HT-SOEL , waste heat II inherent in the product gases of the HT- SOEL is used to preheat the steam to be supplied to the HT-SOEL, and waste heat III obtained from the oxyfuel combustion is fed to the HT-SOEL , wherein the HT- SOEL is operated in endothermic operation, in which the operating point for the cell voltage applied per electrolysis cell is between the electrical energy requirement deltaG and the total energy requirement deltaH, and the missing energy requirement of the HT-SOEL in endothermic operation is covered by the waste heat III , and wherein the electrical efficiency for the HT-SOEL is more than 100% and up to 140% if the electrical efficiency (ηE lektr ) of the HT-SOEL is defined according to the following formula (I) η Elektr = V ′ H 2 m 3 STP / h ∗ LHV H 2 kWh / m 3 STP / P el kW ∗ 100 % wherein V' H2 denotes the H 2 volume flow, LHV H2 denotes the lower heating value of the hydrogen generated, STP denotes the standard temperature and pressure, and P e1 denotes the electrical power.
Electrical heating cable comprising two or more strands of metal filaments twisted or cabled together, - wherein at least one of the strands comprises a first set of metal filaments and a second set of metal filaments , both for conducting electrical current and generating heat when the heating cable is in use; - wherein the metal filaments of the first set of metal filaments comprise a steel layer; - wherein the metal filaments of the second set of metal filaments comprise a steel layer; wherein the metal filaments of the second set have an annealed microstructure; characterised in that the metal filaments of the first set have an end-drawn microstructure. - wherein at least one of the strands comprises a first set of metal filaments and a second set of metal filaments , both for conducting electrical current and generating heat when the heating cable is in use; - wherein the metal filaments of the first set of metal filaments comprise a steel layer; - wherein the metal filaments of the second set of metal filaments comprise a steel layer;