mhurhangee/ep-ind-claims huggingface dataset:
A digital filter device for filtering a binary input digital signal and outputting a binary output digital signal, comprising: a first accumulating portion configured to cumulatively add a time during which signal levels of the input digital signal and the output digital signal do not match so as to calculate a first accumulation time, suspend cumulatively adding and hold a time cumulatively added hitherto when the signal levels of the input digital signal and the output digital signal match, restart cumulatively adding from the time held when the signal levels of the input digital signal and the output digital signal do not match, and reset the first accumulation time to a predetermined first initial value and switch the time for cumulative addition between the time of mismatching of the signal levels and the time of matching of the signal levels when the first accumulation time has reached a predetermined first reference value; and a switch portion configured to switch the signal level of the output digital signal when the first accumulation time has reached the first reference value. a first accumulating portion configured to cumulatively add a time during which signal levels of the input digital signal and the output digital signal do not match so as to calculate a first accumulation time, suspend cumulatively adding and hold a time cumulatively added hitherto when the signal levels of the input digital signal and the output digital signal match, restart cumulatively adding from the time held when the signal levels of the input digital signal and the output digital signal do not match, and reset the first accumulation time to a predetermined first initial value and switch the time for cumulative addition between the time of mismatching of the signal levels and the time of matching of the signal levels when the first accumulation time has reached a predetermined first reference value; and a switch portion configured to switch the signal level of the output digital signal when the first accumulation time has reached the first reference value.
A process for preparing curable oligomeric and/or polymeric polysilazanes comprising (a) forming at least one dihalosilane-base adduct by reacting at least one dihalosilane with at least one base; (b) combining at least one said dihalosilane-base adduct and at least one organodihalosilane; and (c) carrying out ammonolysis of the resulting combination of at least one said dihalosilane-base adduct and at least one said organodihalosilane; with the proviso that said base is used for said dihalosilane-base adduct formation in a limited amount that is less than or equal to 1.25 times the stoichiometric amount of silicon-halogen bonds in said dihalosilane, with the proviso that the base is not pyridine if said base is used for said dihalosilane-base adduct formation in an amount that is equal to the stoichiometric amount of silicon-halogen bonds in said dihalosilane, or is used for said dihalosilane-base adduct formation in excess of said limited amount and, prior to said ammonolysis, the total amount of the resulting reacted and unreacted base is reduced to no more than said limited amount. (a) forming at least one dihalosilane-base adduct by reacting at least one dihalosilane with at least one base; (b) combining at least one said dihalosilane-base adduct and at least one organodihalosilane; and (c) carrying out ammonolysis of the resulting combination of at least one said dihalosilane-base adduct and at least one said organodihalosilane; is used for said dihalosilane-base adduct formation in a limited amount that is less than or equal to 1.25 times the stoichiometric amount of silicon-halogen bonds in said dihalosilane, with the proviso that the base is not pyridine if said base is used for said dihalosilane-base adduct formation in an amount that is equal to the stoichiometric amount of silicon-halogen bonds in said dihalosilane, or is used for said dihalosilane-base adduct formation in excess of said limited amount and, prior to said ammonolysis, the total amount of the resulting reacted and unreacted base is reduced to no more than said limited amount.
A turbofan engine comprising: a fan case; and a strut apparatus (700, 800) for reducing deflection of the fan case, the fan case having a flange located at a forward end of the fan case; a first strut having a first end located proximate an aft side of the flange of the fan case; a second strut having a first end located proximate the aft side of the flange of the fan case, wherein each of the first end of the first strut and the first end of the second strut is located at a distance from the aft side of the flange, wherein the distance is selected to allow the fan case to bend or distort up to the distance, and wherein in response to the fan case translating the distance at least one of the first strut or the second strut contacts the aft side of the flange and prevents the fan case from distorting beyond the distance, an attachment bracket coupled to a second end of the first strut and to a second end of the second strut; and a deflection resistant structure aft of the fan case, wherein the attachment bracket is coupled to the deflection resistant structure, and wherein the deflection resistant structure comprises at least one of a thurst reverser support or a pylon coupled to the turbofan engine. a fan case; and a strut apparatus (700, 800) for reducing deflection of the fan case, the fan case having a flange located at a forward end of the fan case; a first strut having a first end located proximate an aft side of the flange of the fan case; a second strut having a first end located proximate the aft side of the flange of the fan case, wherein each of the first end of the first strut and the first end of the second strut is located at a distance from the aft side of the flange, wherein the distance is selected to allow the fan case to bend or distort up to the distance, and wherein in response to the fan case translating the distance at least one of the first strut or the second strut contacts the aft side of the flange and prevents the fan case from distorting beyond the distance, an attachment bracket coupled to a second end of the first strut and to a second end of the second strut; and a deflection resistant structure aft of the fan case, wherein the attachment bracket is coupled to the deflection resistant structure, and wherein the deflection resistant structure comprises at least one of a thurst reverser support or a pylon coupled to the turbofan engine.
External cavity laser unit comprising a laser capable of generating coherent optical radiation in the mid-infrared range, a filter, and a reflector, wherein said filter is arranged between the laser and the reflector, characterized in that said filter is a mid-infrared bandpass interference filter comprising a layer sequence (100, 110, 120) of alternating layers of high refractive index and low refractive index materials, said high refractive index and low refractive index materials being transparent in the mid-infrared range, wherein an adhesion-promoting layer is arranged between at least one layer of said high refractive index material and the adjacent layer of said low refractive index material, and wherein the filter consists of or comprises the following structure: - (HGLG) repeated n times, - HGLLG, - (HGLG) repeated m times, - H where - H is a layer of said high refractive index material, - L is a layer of said low refractive index material, wherein the thickness of the layers of said high refractive index material and the thickness of the layers of said low refractive index material equals a quarter wavelength of the radiation, which is outputted by the external cavity laser, in the respective material, corrected for the angle under which the radiation passes the layers, - G is an adhesion-promoting layer, and - n and m are integers. - (HGLG) repeated n times, - HGLLG, - (HGLG) repeated m times, - H - H is a layer of said high refractive index material, - L is a layer of said low refractive index material, - G is an adhesion-promoting layer, and - n and m are integers.
Pinch valve, comprising a tubular valve member extending between two connecting pieces (15, 16) and having a flexible circumferential wall, in the region of the outer circumference of which valve member at least one pinch element (28a, 28b) movable perpendicular to the valve member longitudinal axis for the more or less strong pinching of the circumferential wall while performing an operating movement is located, further comprising impingement means located in the region of the outer circumference of the valve member, which can be driven to perform a impingement movement in order to cause the operating movement of the at least one pinch element (28a, 28b) in cooperation therewith, further comprising a valve housing with a circumferential valve housing wall, which bounds an operating chamber containing the impingement means, and further comprising position detecting means designed for outputting electric signals for the non-contact detection of at least one operating position the impingement means can adopt within the impingement movement, wherein the position detecting means comprise actuating means joining the impingement movement and sensor means, which are mounted on the valve housing outside the operating chamber and which respond to the actuating means in a non-contact manner, characterised in that the valve housing wall radially encloses the valve member on the outside, and in that the impingement movement of the impingement means is oriented along the valve member, the actuating means being located on the impingement means.
A method for producing a honeycomb structure, with the steps: a) producing a honeycomb strand from two substrates (8, 9); b) joining the honeycomb strand to a honeycomb mat; characterised in that the production of the honeycomb strand from two substrates (8, 9) and the joining of the honeycomb strand to the honeycomb mat is carried out in a single operating step. a) producing a honeycomb strand from two substrates (8, 9); b) joining the honeycomb strand to a honeycomb mat;
A broadcast receiver, comprising demodulator circuitry (500, 103), host circuitry and an interface formed between the demodulator circuitry (500, 103) and the host circuitry, the demodulator circuitry (500, 103) being arranged in operation to receive a broadcast signal carrying a plurality of data streams on a respective plurality of data physical layer pipes and one or more common physical layer pipes, each of the data physical layer pipes carrying at least a unique portion of a corresponding one of the data streams, and the one or more common physical layer pipes carrying a common portion of two or more of the plurality of data streams; to identify each of the data physical layer pipes and the one or more common physical layer pipes present in the broadcast signal and to determine an association between the one or more common physical layer pipes and the data physical layer pipes; to store the determined association between the common physical layer pipes and the data physical layer pipes in a data store; and to communicate an identification of each of the data physical layer pipes present in the broadcast signal to the host circuitry via the interface; the host circuitry being arranged in operation to communicate, to the demodulator circuitry (500, 103) via the interface, an identification of a selected data physical layer pipe which carries one of the plurality of data streams, wherein the demodulator circuitry (500, 103) is arranged in operation to determine, from the stored association between the data physical layer pipes and the one or more common physical layer pipes, a common physical layer pipe associated with the selected data physical layer pipe; to extract, from the broadcast signal, the selected data physical layer pipe and the determined associated common physical layer pipe; and to combine the extracted data physical layer pipe and common physical layer pipe to obtain the one of the plurality of data streams for output to the host circuitry for decompression and decoding.
A fusion protein comprising a) human Factor IX, and b) human albumin for use in a method of preventing bleeding in a human patient in a prophylactic dosing regimen, wherein the human FIX is connected to the N-terminus of human albumin via a peptide linker cleavable by proteases involved in coagulation or activated by coagulation enzymes, and wherein the fusion protein is to be administered subcutaneously to the subject at a dose of about 10-50 IU/kg, using a dosing interval of about once a day to about once per week. a) human Factor IX, and b) human albumin
A train scheduling method of an intelligent train scheduling system, comprising: obtaining train schedule information which includes train line information and information about operation time of each train; generating a time extension network which includes stations, as nodes, at which the trains included in the train schedule information stop, lines, as edges, between the stations included in the train schedule information, and operation time information of each train included in the train schedule information; and calculating predictive information about a traffic volume in each section and a traffic volume of each train for the train schedule on the basis of the time extension network, wherein the time extension network includes a time extension node group classified into a station arrival node, a station departure node, a demand generation node, or a demand end node and a time extension edge group classified into an inter-station movement edge, a stop edge, a transit edge, a demand generation edge, or a demand end edge. obtaining train schedule information which includes train line information and information about operation time of each train; generating a time extension network which includes stations, as nodes, at which the trains included in the train schedule information stop, lines, as edges, between the stations included in the train schedule information, and operation time information of each train included in the train schedule information; and calculating predictive information about a traffic volume in each section and a traffic volume of each train for the train schedule on the basis of the time extension network, wherein the time extension network includes a time extension node group classified into a station arrival node, a station departure node, a demand generation node, or a demand end node and a time extension edge group classified into an inter-station movement edge, a stop edge, a transit edge, a demand generation edge, or a demand end edge.
A system arranged for the simultaneous compensation of nonlinear cross polarization modulation induced noise and nonlinear cross phase modulation induced noise in a high data rate polarization multiplexed channel due to neighboring channels, characterized by comprising: a receiver operable for receiving spectrally separable pilot tones in same states of polarization as polarization channels, down converting associated pilot tone vectors to a baseband, separating the pilot tone vectors with a sufficient bandwidth, down converting subcarrier signal vectors to the baseband, and taking scalar products of the various vectors, a first scalar product and a second scalar product, wherein the first scalar product restores an original first polarization channel launched into a link at a first polarization and the second scalar product restores an original second polarization channel launched into the link at a second polarization; wherein the sufficient bandwidth around a first polarization pilot tone and a second polarization pilot tone is sufficient to simultaneously capture nonlinear cross phase modulation induced polarization variation and nonlinear cross phase modulation induced phase variation. a receiver operable for receiving spectrally separable pilot tones in same states of polarization as polarization channels, down converting associated pilot tone vectors to a baseband, separating the pilot tone vectors with a sufficient bandwidth, down converting subcarrier signal vectors to the baseband, and taking scalar products of the various vectors, a first scalar product and a second scalar product, wherein the first scalar product restores an original first polarization channel launched into a link at a first polarization and the second scalar product restores an original second polarization channel launched into the link at a second polarization; wherein the sufficient bandwidth around a first polarization pilot tone and a second polarization pilot tone is sufficient to simultaneously capture nonlinear cross phase modulation induced polarization variation and nonlinear cross phase modulation induced phase variation.
A method for processing a received signal on one or more twisted pair, said method comprising the steps of: generating a differential component (Rx_d) of said received signal; generating a common mode component (Rx_c) of said received signal; generating a vector representation of said differential and common mode components; generating a differential mode component (Tx_d) and a common mode component (Tx_c) of a transmitted signal; and removing noise from said received signal by applying a vector representation containing said differential mode component and common mode component of said transmitted signal to a multi-dimensional finite impulse response filter having matrix coefficients and adding the filtered vector representation to the vector representation of the differential and common mode components of the received signal. generating a differential component (Rx_d) of said received signal; generating a common mode component (Rx_c) of said received signal; generating a vector representation of said differential and common mode components; generating a differential mode component (Tx_d) and a common mode component (Tx_c) of a transmitted signal; and removing noise from said received signal by applying a vector representation containing said differential mode component and common mode component of said transmitted signal to a multi-dimensional finite impulse response filter having matrix coefficients and adding the filtered vector representation to the vector representation of the differential and common mode components of the received signal.
A heating device for combustion of liquid fuels, said device comprising at least one catalytic element for catalytically burning a mixture of fuel and air, a fuel supply means being disposed on an upstream side of said at least one catalytic element, an air supply means being disposed on an upstream side of said at least one catalytic element, a fuel-evaporating device having a substantially axisymmetric shape and having an upstream end and a downstream end, said fuel-evaporating device being heated, during operation, by the at least one catalytic element, and being supplied fuel and air from the fuel supply means and the air supply means, an outer housing, for containing said catalytic element and said fuel-evaporating device, wherein the fuel-evaporating device is provided with at least one inner inlet pipe (132; 132b) in the upstream end thereof, and wherein the pipe (132; 132b) is arranged to inject fuel and/or air in a tangential direction into the generally upstream part of the fuel-evaporating device such that a rotational flow is obtained therein, characterized in that the upstream end of the fuel-evaporating device is arranged in close proximity or in direct contact with the at least one catalytic element, and in that an inner wall is disposed inside of the outer housing, and being coupled to the outer housing at their upper ends, such that an outer inlet chamber is formed there-between, wherein the outer inlet chamber further is provided with an outer inlet pipe connected to the upstream portion of the outer inlet chamber for delivering further air and wherein the outer inlet pipe is arranged to direct the air flow into the outer inlet chamber.
A rubber toughened cyanoacrylate adhesive composition, comprising: (i) a cyanoacrylate component, and (ii) a rubber toughening agent having(a)reaction products of the combination of ethylene, methyl acrylate and monomers having carboxylic acid cure sites, (b) dipolymers of ethylene and methyl acrylate, and combinations of (a) and (b), and being free of release agents octadecyl amine, complex organic phosphate esters; anti-oxidants substituted diphenyl amine; stearic acid and/or polyethylene glycol ether wax. (i) a cyanoacrylate component, and (ii) a rubber toughening agent having(a)reaction products of the combination of ethylene, methyl acrylate and monomers having carboxylic acid cure sites, (b) dipolymers of ethylene and methyl acrylate, and combinations of (a) and (b), and being free of release agents octadecyl amine, complex organic phosphate esters; anti-oxidants substituted diphenyl amine; stearic acid and/or polyethylene glycol ether wax.
An orthopaedic implant comprising: a baseplate (22, 122) including a plate body (26, 126) extending along a longitudinal axis between a front face (28, 128) and a rear face (30, 130), and including an anchoring stem extending outwardly from the rear face (30, 130); wherein the plate body (26, 126) includes a main body portion (38, 138) establishing the front face (28, 128), an augment portion (40, 140) extending outwardly from the main body portion (38, 138) to establish an augment face section (42, 142) of the rear face (30, 130), and a plurality of peripheral apertures (44, 144) circumferentially distributed about the longitudinal axis, wherein the peripheral apertures (44, 144) are dimensioned to receive respective fasteners for securing the baseplate (22, 122) to a surgical site; wherein the augment face section (42, 142) is arranged transversely relative to the longitudinal axis, and first and second reference planes (R1, R2) arranged perpendicular to each other extend along the longitudinal axis such that the first reference plane bisects the augment face section (42, 142); characterized in, that wherein all peripheral apertures (44, 144) of the baseplate (22, 122) that are arranged about the longitudinal axis are circumferentially offset from both of the first and second reference planes (R1, R2). a baseplate (22, 122) including a plate body (26, 126) extending along a longitudinal axis between a front face (28, 128) and a rear face (30, 130), and including an anchoring stem extending outwardly from the rear face (30, 130); wherein the plate body (26, 126) includes a main body portion (38, 138) establishing the front face (28, 128), an augment portion (40, 140) extending outwardly from the main body portion (38, 138) to establish an augment face section (42, 142) of the rear face (30, 130), and a plurality of peripheral apertures (44, 144) circumferentially distributed about the longitudinal axis, wherein the peripheral apertures (44, 144) are dimensioned to receive respective fasteners for securing the baseplate (22, 122) to a surgical site; wherein the augment face section (42, 142) is arranged transversely relative to the longitudinal axis, and first and second reference planes (R1, R2) arranged perpendicular to each other extend along the longitudinal axis such that the first reference plane bisects the augment face section (42, 142); characterized in, that wherein all peripheral apertures (44, 144) of the baseplate (22, 122) that are arranged about the longitudinal axis are circumferentially offset from both of the first and second reference planes (R1, R2).