mhurhangee/patent-ind-claim-en huggingface dataset:
Production line for producing fiber webs comprising at least one head box, which can be a two or three layer head box , forming section comprising forming means for each layer or layer combination of the fiber web (W), a press section with at least one press nip (111; 112), at least one drying section (12; 142, 143; 152; 162, 163; 172; 173), a size press , at least one calender (15; 18), a reel-up , at least one cooler for cooling the fiber web (W) providing gas blows towards the fiber web (W) at a location at least after the press section, wherein the at least one cooler is provided between at least one calender (15; 18) and the last drying cylinder of the drying section located before the calender, wherein length of the fiber web run between the calender and the last drying cylinder before it is 7 - 20 m, advantageously 10 - 15 m measured from last contact point of the fiber web (W) on the last drying cylinder to first contact point of the fiber web (W) on first calender roll forming a calendering nip of the calender , characterized in, that the production line further comprises a Yankee cylinder and an after drying section (141, 142; 152) located after the Yankee cylinder and/or the size press and/or the calender/-s .
A feed composition, wherein the feed composition comprises an optionally selected feed-acceptable adjuvant and a hexahydro-β-acid compound represented by formula (ii) or a feed-acceptable salt thereof: or wherein the feed composition comprises a hexahydro-β-acid compound represented by formula (i) or a feed-acceptable salt thereof, and a hexahydro-β-acid compound represented by formula (ii) or a feed-acceptable salt thereof:
A broadcast signal receiver, comprising: a Fast Fourier Transform, FFT, module configured to OFDM-demodulate a received broadcast signal; a pilot detector configured to detect pilots included in the broadcast signal; a frame parsing module configured to parse a signal frame of the broadcast signal, the signal frame comprising a preamble and at least one subframe; a demapping and decoding module configured to convert PLP data of the broadcast signal into a bit domain and to FEC-decode the PLP data; and an output processing module configured to process the PLP data to output a data stream, wherein the pilots comprise Continual Pilots, CPs, and Scattered Pilots, SPs, and an SP pattern of the SPs is defined by values of Dx and Dy, wherein Dx denotes a separation of pilot bearing carriers in a frequency direction and Dy denotes a number of symbols forming one scattered pilot sequence in a time direction, an amplitude of the SPs is determined based on an SP boosting parameter and the SP pattern of the SPs, and characterized by , the preamble comprises the SP boosting parameter having a value that corresponds to one of plurality of boosting levels for each of the at least one subframe. a Fast Fourier Transform, FFT, module configured to OFDM-demodulate a received broadcast signal; a pilot detector configured to detect pilots included in the broadcast signal; a frame parsing module configured to parse a signal frame of the broadcast signal, the signal frame comprising a preamble and at least one subframe; a demapping and decoding module configured to convert PLP data of the broadcast signal into a bit domain and to FEC-decode the PLP data; and an output processing module configured to process the PLP data to output a data stream, wherein the pilots comprise Continual Pilots, CPs, and Scattered Pilots, SPs, and an SP pattern of the SPs is defined by values of Dx and Dy, wherein Dx denotes a separation of pilot bearing carriers in a frequency direction and Dy denotes a number of symbols forming one scattered pilot sequence in a time direction, an amplitude of the SPs is determined based on an SP boosting parameter and the SP pattern of the SPs, and characterized by , the preamble comprises the SP boosting parameter having a value that corresponds to one of plurality of boosting levels for each of the at least one subframe.
A method for modem dial-up, comprising: 1.1 receiving, by a broadband device, a first Link Control Protocol LCP request message of a wireless network side device; 1.2 processing, by the broadband device, an Extensible Authentication Protocol EAP authentication field of the first LCP request message into an authentication field supported by a dial-up terminal; 1.3 sending, by the broadband device, a processed first LCP request message to the dial-up terminal; 1.4 receiving, by the broadband device, a first LCP response message returned by the dial-up terminal; 1.5 processing, by the broadband device, an authentication field of the first LCP response message into an authentication field supported by the wireless network side device; 1.6 sending, by the broadband device, a processed first LCP response message to the wireless network side device; and 1.7 acquiring, by the broadband device, an Internet Protocol IP address from the wireless network side device, and sending the IP address to the dial-up terminal, 1.21 wherein the processing an EAP authentication field of the first LCP request message into an authentication field supported by a dial-up terminal comprises: deleting, by the broadband device, the EAP authentication field; and 1.51 the processing an authentication field of the first LCP response message into an authentication field supported by the wireless network side device comprises: adding, by the broadband device, the EAP authentication field into the first LCP response message. 1.1 receiving, by a broadband device, a first Link Control Protocol LCP request message of a wireless network side device; 1.2 processing, by the broadband device, an Extensible Authentication Protocol EAP authentication field of the first LCP request message into an authentication field supported by a dial-up terminal; 1.3 sending, by the broadband device, a processed first LCP request message to the dial-up terminal; 1.4 receiving, by the broadband device, a first LCP response message returned by the dial-up terminal; 1.5 processing, by the broadband device, an authentication field of the first LCP response message into an authentication field supported by the wireless network side device; 1.6 sending, by the broadband device, a processed first LCP response message to the wireless network side device; and 1.7 acquiring, by the broadband device, an Internet Protocol IP address from the wireless network side device, and sending the IP address to the dial-up terminal, 1.21 wherein the processing an EAP authentication field of the first LCP request message into an authentication field supported by a dial-up terminal comprises: deleting, by the broadband device, the EAP authentication field; and 1.51 the processing an authentication field of the first LCP response message into an authentication field supported by the wireless network side device comprises: adding, by the broadband device, the EAP authentication field into the first LCP response message.
An acoustic transmission member having a predetermined acoustic frequency band as a transmission frequency band, the acoustic transmission member comprising: a core layer layered between two skin layers , wherein the skin layers are formed of a material having a higher elastic modulus than a material of the core layer ; the skin layer is formed of a material having the elastic modulus from 100 MPa to 350 GPa; the skin layer is formed by including any one of fiber reinforced plastic, plastic, and metal; and the core layer is formed of a viscoelastic member or plastic; characterized in that a thickness ds of the skin layers satisfies Equation , where f is a center frequency of the transmission frequency band, cw is an acoustic velocity in a medium surrounding the acoustic transmission member , the medium being water, λ is a wavelength corresponding to the center frequency in the medium, cds is a longitudinal wave acoustic velocity in the skin layers , and n is a discretionary natural number; and a thickness dc of the core layer and the wavelength λ satisfy 0.0675 ≤ dc/λ ≤ 5.4; ds = n 2 Cds cw λ = n 2 Cds f
A method for manufacturing an electrode assembly , the method comprising: a step (S10) of manufacturing a first separator sheet so that patterned masks having different adhesion force are formed on both surfaces of the first separator sheet ; a step (S20) of disposing a first electrode sheet on a mask of a first surface of both the surfaces of the first separator sheet , which has relatively high adhesion force and disposing a second electrode sheet on a mask of a second surface of both the surfaces of the first separator sheet , which has relatively low adhesion force; and a step (S30) of applying heat and a pressure to allow the first electrode sheet and the second electrode sheet to adhere to both the surfaces of the first separator sheet and thereby to manufacture a radical unit, characterized in that , in the step (S10), each of both the surfaces of the first separator sheet is plasma-treated to provide the mask having a predetermined pattern and activated adhesion force, wherein the plasma applied to the first and second surfaces of the first separator sheet varies in intensity to differently apply the adhesion force to both the surfaces of the first separator sheet , and the second surface is relatively weakly plasma-treated when compared to the first surface . a step (S10) of manufacturing a first separator sheet so that patterned masks having different adhesion force are formed on both surfaces of the first separator sheet ; a step (S20) of disposing a first electrode sheet on a mask of a first surface of both the surfaces of the first separator sheet , which has relatively high adhesion force and disposing a second electrode sheet on a mask of a second surface of both the surfaces of the first separator sheet , which has relatively low adhesion force; and a step (S30) of applying heat and a pressure to allow the first electrode sheet and the second electrode sheet to adhere to both the surfaces of the first separator sheet and thereby to manufacture a radical unit, characterized in that , in the step (S10), each of both the surfaces of the first separator sheet is plasma-treated to provide the mask having a predetermined pattern and activated adhesion force, wherein the plasma applied to the first and second surfaces of the first separator sheet varies in intensity to differently apply the adhesion force to both the surfaces of the first separator sheet , and the second surface is relatively weakly plasma-treated when compared to the first surface .
Use of a composition comprising pelargonic acid and two or more nonionic surfactants for inhibiting the growth of suckers on plants, wherein said composition comprises pelargonic acid in an amount ranging from at least 0.5 g/l to at most 50.0 g/l, wherein a first nonionic surfactant is a polyoxyethylene glycol sorbitan alkyl ester and wherein a second nonionic surfactant is a sorbitan alkyl ester.
A method for cultivating paralarvae of the common octopus, Octopus vulgaris, placed in a culture tank containing water, said method characterized in that it comprises the addition of prey selected from: - gammarideas of the type Jassa spp., - caprelids of the types Phtisica spp. and / or Caprella spp. or - combinations of these to said culture tank. - gammarideas of the type Jassa spp., - caprelids of the types Phtisica spp. and / or Caprella spp. or - combinations of these to said culture tank.
Process for the preparation of a procatalyst suitable for preparing a catalyst composition for olefin polymerization, said process comprising the steps of providing a magnesium-based support, contacting said magnesium-based support with a Ziegler-Natta type catalytic species, an internal donor, activated by an activator, to yield a procatalyst, wherein the activator is a benzamide according to Formula X wherein R 70 and R 71 are each independently selected from hydrogen or an alkyl, and R 72 , R 73 , R 74 , R 75 , R 76 are each independently selected from hydrogen, a heteroatom, or a hydrocarbyl group, selected from alkyl, alkenyl, aryl, aralkyl, alkoxycarbonyl or alkylaryl groups, and one or more combinations thereof.
A brake control apparatus for a construction machine , comprising: first and second brake lines for supplying brake oil to a front brake device and a rear brake device of the construction machinery; first and second proportional flow control valves installed respectively in the first and second brake lines to control a flow rate of the brake oil in proportion to inputted first and second brake control signals; a sensing portion configured to detect work and travel information of the construction machinery; and a controller configured to output the first and second brake control signals in response to a brake manipulation signal of a driver, and configured to control independently the first and second proportional flow control valves based on the work and travel information of the construction machinery detected by the sensing portion; characterized in that the controller is configured to converts the brake manipulation signal at a first conversion ratio to generate and output the first brake control signal and to convert the brake manipulation signal at a second conversion ratio to generate and output the second brake control signal. first and second brake lines for supplying brake oil to a front brake device and a rear brake device of the construction machinery; first and second proportional flow control valves installed respectively in the first and second brake lines to control a flow rate of the brake oil in proportion to inputted first and second brake control signals; a sensing portion configured to detect work and travel information of the construction machinery; and a controller configured to output the first and second brake control signals in response to a brake manipulation signal of a driver, and configured to control independently the first and second proportional flow control valves based on the work and travel information of the construction machinery detected by the sensing portion; characterized in that the controller is configured to converts the brake manipulation signal at a first conversion ratio to generate and output the first brake control signal and to convert the brake manipulation signal at a second conversion ratio to generate and output the second brake control signal.
A method for optimizing power efficiency in a computing device with a plurality of processing cores (122-128), the method comprising: determining, by the computing device, processing core activity deviation data for the plurality of processing cores based on processing core activity data from the plurality of processing cores, wherein the processing core activity deviation data is based on an activity deviation between an actual number of active processing cores and an expected number of active processing cores; and in response to the processing core activity deviation data indicating a homogenous workload for the plurality of processing cores, decreasing, by the computing device, a frequency of at least one of the plurality of processing cores. determining, by the computing device, processing core activity deviation data for the plurality of processing cores based on processing core activity data from the plurality of processing cores, wherein the processing core activity deviation data is based on an activity deviation between an actual number of active processing cores and an expected number of active processing cores; and in response to the processing core activity deviation data indicating a homogenous workload for the plurality of processing cores, decreasing, by the computing device, a frequency of at least one of the plurality of processing cores.
A stylus device for interacting with a digitizer, the stylus device comprising: an operational circuit for transmitting a signal that interacts with the digitizer; and an operational switch for activating and deactivating the operational circuit , characterized by : a driving and sensing circuit configured for intermittently supplying a voltage boost to the operational circuit and sensing a state of the operational switch via a same electrical conductor by ceasing the voltage boost for a time period and sensing a voltage on the electrical conductor during the time period. an operational circuit for transmitting a signal that interacts with the digitizer; and an operational switch for activating and deactivating the operational circuit , characterized by : a driving and sensing circuit configured for intermittently supplying a voltage boost to the operational circuit and sensing a state of the operational switch via a same electrical conductor by ceasing the voltage boost for a time period and sensing a voltage on the electrical conductor during the time period.
A method for reducing asphalt pavement thickness thereby providing a more economical pavement material, the method comprising the steps of: combining a base asphalt, an oxidized polyolefin, and an aggregate to form an asphalt paving material, wherein the oxidized polyolefin is oxidized polyethylene with a density of 0.91 to 0.935 g/cm 3 wherein the oxidized polyolefin and the base asphalt form an asphalt binder which is combined with the aggregate and wherein the oxidized polyolefin is present in the asphalt binder in an amount of 0.25 to 10 weight percent; and depositing a layer of the asphalt paving material on a substrate layer and compacting the asphalt paving material to a thickness that is less than a thickness of a compacted asphalt paving material formed of the aggregate and the base asphalt with no oxidized polyolefin, compacted using an identical compaction process under identical process conditions, while achieving the same amount or less of high temperature rutting than the compacted asphalt paving material formed of the aggregate and the base asphalt with no oxidized polyolefin, wherein the high-temperature rutting is simulated by Mechanical Empirical Pavement Design Guide (MEPDG) software from the National Cooperative Highway Research Program. combining a base asphalt, an oxidized polyolefin, and an aggregate to form an asphalt paving material, wherein the oxidized polyolefin is oxidized polyethylene with a density of 0.91 to 0.935 g/cm 3 wherein the oxidized polyolefin and the base asphalt form an asphalt binder which is combined with the aggregate and wherein the oxidized polyolefin is present in the asphalt binder in an amount of 0.25 to 10 weight percent; and depositing a layer of the asphalt paving material on a substrate layer and compacting the asphalt paving material to a thickness that is less than a thickness of a compacted asphalt paving material formed of the aggregate and the base asphalt with no oxidized polyolefin, compacted using an identical compaction process under identical process conditions, while achieving the same amount or less of high temperature rutting than the compacted asphalt paving material formed of the aggregate and the base asphalt with no oxidized polyolefin, wherein the high-temperature rutting is simulated by Mechanical Empirical Pavement Design Guide (MEPDG) software from the National Cooperative Highway Research Program.
Distribution apparatus for distributing data streams for a control unit for a vehicle that can be driven in a highly automated manner, wherein the distribution apparatus has at least the following features: at least one first computer unit and at least one further computer unit , which are designed to process sensor data streams ; a distribution device , which is designed to read in a first sensor data stream from at least one first sensor and at least one further sensor data stream from at least one further sensor and to take a current workload of the individual computer units as a basis for selectively distributing said sensor data streams to the at least one first computer unit or the at least one further computer unit ; and at least one connecting device , which is designed to connect the first computer unit and the further computer unit to at least one vehicle device and/or at least one further processing apparatus . at least one first computer unit and at least one further computer unit , which are designed to process sensor data streams ; a distribution device , which is designed to read in a first sensor data stream from at least one first sensor and at least one further sensor data stream from at least one further sensor and to take a current workload of the individual computer units as a basis for selectively distributing said sensor data streams to the at least one first computer unit or the at least one further computer unit ; and at least one connecting device , which is designed to connect the first computer unit and the further computer unit to at least one vehicle device and/or at least one further processing apparatus .
An electronic device , comprising: a body ; a display in front of the body ; a speaker assembly disposed inside the body of the electronic device , the speaker assembly including: a speaker unit comprising a magnet; a frame in which the speaker unit is disposed; a casing having an internal space including a resonant region, wherein the casing includes a side comprising a recessed portion corresponding to the magnet, and the magnet is disposed at the recessed portion of the casing and exposed to the outside of the casing, characterized in that the magnet includes a first long side, a second long side opposite the first long side, a first short side connected with the first long side and the second long side between the first long side and the second long side, and a second short side connected with the first long side and the second long side opposite the first short side, and wherein the first long side and the second long side of the magnet are externally exposed from the speaker assembly to the outside of the speaker assembly at the recessed portion of the casing such that a distance between the first long side and the second long side of the magnet is substantially the same as a thickness of the casing . a body ; a display in front of the body ; a speaker assembly disposed inside the body of the electronic device , the speaker assembly including: a speaker unit comprising a magnet; a frame in which the speaker unit is disposed; a casing having an internal space including a resonant region, wherein the casing includes a side comprising a recessed portion corresponding to the magnet, and the magnet is disposed at the recessed portion of the casing and exposed to the outside of the casing, a speaker unit comprising a magnet; a frame in which the speaker unit is disposed; a casing having an internal space including a resonant region, wherein the casing includes a side comprising a recessed portion corresponding to the magnet, and the magnet is disposed at the recessed portion of the casing and exposed to the outside of the casing, characterized in that the magnet includes a first long side, a second long side opposite the first long side, a first short side connected with the first long side and the second long side between the first long side and the second long side, and a second short side connected with the first long side and the second long side opposite the first short side, and wherein the first long side and the second long side of the magnet are externally exposed from the speaker assembly to the outside of the speaker assembly at the recessed portion of the casing such that a distance between the first long side and the second long side of the magnet is substantially the same as a thickness of the casing .