mhurhangee/ep-ind-claims huggingface dataset:
A method of making a green biofuel based on renewable biomass feedstock, comprising: receiving biomass feedstock; combining the biomass feedstock with a biocarbon colloidal dispersion into a blend; and pumping the blend through a length of first pipe having a first diameter surrounded by a second pipe having a second diameter larger than the first diameter, the second pipe being supplied with a continuous flow of a second heat exchange fluid, the length of the first pipe having an input end for receiving the blend, and an output end for outputting a second blend of torrefied biomass and biocarbon colloidal dispersion generated within the length of the first pipe. receiving biomass feedstock; combining the biomass feedstock with a biocarbon colloidal dispersion into a blend; and pumping the blend through a length of first pipe having a first diameter surrounded by a second pipe having a second diameter larger than the first diameter, the second pipe being supplied with a continuous flow of a second heat exchange fluid, the length of the first pipe having an input end for receiving the blend, and an output end for outputting a second blend of torrefied biomass and biocarbon colloidal dispersion generated within the length of the first pipe.
An ice making apparatus, comprising: an ice making assembly and an ice storage box under the ice making assembly, wherein the ice making apparatus is characterized in that: the ice storage box comprises an outer box and an inner box arranged in the outer box; the outer box has an ice receiving region under the ice making assembly and an ice storage region adjacent to the ice receiving region; and the ice making apparatus further comprises a driving assembly capable of driving the inner box to move from the ice receiving region to the ice storage region. the ice storage box comprises an outer box and an inner box arranged in the outer box; the outer box has an ice receiving region under the ice making assembly and an ice storage region adjacent to the ice receiving region; and the ice making apparatus further comprises a driving assembly capable of driving the inner box to move from the ice receiving region to the ice storage region.
A method for demodulating a received Orthogonal Frequency Division Multiplexing, OFDM, signal to provide Level 2 data, said OFDM signal comprising Level 1 data comprising Differential Multiple Phase Shift Keying, D-MPSK, modulated symbols to which Level 2 data has been added by differentially modulating said symbols with amplitude offsets, and characterized by comprising the steps of: a) differentially demodulating received D-MPSK modulated symbols to decode the Level 1 data, b) differentially remodulating the differentially demodulated D-MPSK modulated symbols of Level 1 data to recover Level 1 encoded symbols; and c) using the remodulated Level 1 data from step b) to decode Level 2 data by amplitude demodulation to determine the amplitude offsets and consequentially said Level 2 data. a) differentially demodulating received D-MPSK modulated symbols to decode the Level 1 data, b) differentially remodulating the differentially demodulated D-MPSK modulated symbols of Level 1 data to recover Level 1 encoded symbols; and c) using the remodulated Level 1 data from step b) to decode Level 2 data by amplitude demodulation to determine the amplitude offsets and consequentially said Level 2 data.
An in vitro method for analyzing at least one blood parameter in a whole blood sample of a patient comprising: a) determining the in vivo hemolysis in a fresh whole blood sample of the patient by immediately performing the hemolysis determination after the blood sample has been obtained from the patient; b) determining the overall hemolysis and the at least one blood parameter in a whole blood sample of the patient; and characterized in that the method is further comprising c) calculating the in vitro hemolysis based on the overall hemolysis and the in vivo hemolysis. a) determining the in vivo hemolysis in a fresh whole blood sample of the patient by immediately performing the hemolysis determination after the blood sample has been obtained from the patient; b) determining the overall hemolysis and the at least one blood parameter in a whole blood sample of the patient; and characterized in that the method is further comprising c) calculating the in vitro hemolysis based on the overall hemolysis and the in vivo hemolysis.
A portable fire extinguishing apparatus, comprising a casing and a cartridge arranged inside the casing, characterized in that, a top end of the cartridge is fixedly connected with the casing through a snap ring; a bottom of the cartridge is fixedly connected with the casing through nuts and bolts.
A terminal comprising: a control section configured to control communication by using a first time unit or a second time unit set per frequency band, the first time unit being formed with one or more symbols each having a length of a symbol in accordance with a first subcarrier spacing and the second time unit being formed with one or more symbols each having a length of a symbol in accordance with a second subcarrier spacing and being longer than the first time unit; and a receiving section configured to receive a downlink signal by using any of the first time unit and the second time unit; and a transmitting section configured to transmit an uplink signal by using any of the first time unit and the second time unit; wherein the control section is configured to determine the first time unit per frequency band based on configuration information provided from a base station by higher layer signaling. a control section configured to control communication by using a first time unit or a second time unit set per frequency band, the first time unit being formed with one or more symbols each having a length of a symbol in accordance with a first subcarrier spacing and the second time unit being formed with one or more symbols each having a length of a symbol in accordance with a second subcarrier spacing and being longer than the first time unit; and a receiving section configured to receive a downlink signal by using any of the first time unit and the second time unit; and a transmitting section configured to transmit an uplink signal by using any of the first time unit and the second time unit; wherein the control section is configured to determine the first time unit per frequency band based on configuration information provided from a base station by higher layer signaling.
A method of suppressing residual echo, comprising: determining a first spectral mismatch of an acoustic echo canceler based upon at least a ratio of power spectral density of a program content signal that is to be converted into an acoustic program signal by the one or more acoustic drivers and the power spectral density of a residual signal from an echo cancellation subsystem; storing the first spectral mismatch in a memory; determining a second spectral mismatch of the acoustic echo canceler based upon at least a ratio of power spectral density of the program content signal and the power spectral density of the residual signal at a different time than the first spectral mismatch; selecting one of the first spectral mismatch or the second spectral mismatch; calculating a filter coefficient based upon the selected spectral mismatch; and filtering the residual signal based upon the calculated filter coefficient, wherein selecting one of the first spectral mismatch or the second spectral mismatch is based at least in part upon detecting a double-talk condition, or selecting one of the first spectral mismatch or the second spectral mismatch is based at least in part upon a sound stage configuration selected for rendering the program content signal into an acoustic signal. determining a first spectral mismatch of an acoustic echo canceler based upon at least a ratio of power spectral density of a program content signal that is to be converted into an acoustic program signal by the one or more acoustic drivers and the power spectral density of a residual signal from an echo cancellation subsystem; storing the first spectral mismatch in a memory; determining a second spectral mismatch of the acoustic echo canceler based upon at least a ratio of power spectral density of the program content signal and the power spectral density of the residual signal at a different time than the first spectral mismatch; selecting one of the first spectral mismatch or the second spectral mismatch; calculating a filter coefficient based upon the selected spectral mismatch; and filtering the residual signal based upon the calculated filter coefficient, wherein selecting one of the first spectral mismatch or the second spectral mismatch is based at least in part upon detecting a double-talk condition, or selecting one of the first spectral mismatch or the second spectral mismatch is based at least in part upon a sound stage configuration selected for rendering the program content signal into an acoustic signal.
An implantable medical product, comprising a basic body having a polymer surface and an imidazole derivative in the form of its free base; wherein said basic body has on its polymeric surface a layer containing the imidazole derivative as an active ingredient, which displays an antithrombogenic, antiproliferative, anti-inflammatory or antiadhesive effect, or a combination thereof, wherein said imidazole derivative is miconazole. wherein said basic body has on its polymeric surface a layer containing the imidazole derivative as an active ingredient, which displays an antithrombogenic, antiproliferative, anti-inflammatory or antiadhesive effect, or a combination thereof, wherein said imidazole derivative is miconazole.
Rail guide for a shading device, in particular a cloth awning, comprising a guide rail as carrier element, a guide profile arranged in the guide rail and intended for receiving a keder arranged longitudinally on the awning cloth, and at least one elastic holding element (5, 5') held in the guide rail and intended for supporting the guide profile, wherein the guide rail comprises a guide chamber for receiving the guide profile, which guide chamber is defined by a rear boundary, by a first side wall projecting from the rear boundary with the formation of a first edge, by a second side wall projecting from the rear boundary with the formation of a second edge as well as by a first front web projecting from the first side wall and by a second front web projecting from the second side wall, and which guide chamber is open through a front passage delimited by the front webs (19, 21) which extend towards one another, the elastic holding element (5, 5') is designed as an independent, one-part and profile-like component and has a damping part (6, 6') comprising a spring arm (7, 7') and having a neck part (9, 9') which projects from said damping part and which bears a head part (8, 8'), the guide profile can be inserted through the front passage into the guide chamber and has a cross-sectionally C-shaped keder slot profile, which delimits a keder slot for the keder, and at least a first holding web which projects laterally from the keder slot profile with the formation of a holding edge, and the spring arm (7, 7') - in the mounted state - bears by way of its free end against the first holding web situated between it and the rear boundary, with the result that the guide profile is held resiliently in the guide rail in the pulling direction of the awning cloth, characterized in that the guide rail is designed in one part and allows direct fastening, without an additional holding or fastening profile, to a building, the first side wall has an undercut longitudinal slot and - in the mounted state - the neck part (9, 9') engages through the longitudinal slot and the holding element (5, 5') is held on the first side wall by means of the head part (8, 8').
A method involving a turbine engine, comprising: receiving data indicative of twist of a shaft of the turbine engine; monitoring the data over time to identity one or more reversal events while the turbine engine is operating, wherein each of the reversal events corresponds to a reversal in a value sign of the data; and identifying shaft shear in the shaft based on occurrence of N number of the reversal events. receiving data indicative of twist of a shaft of the turbine engine; monitoring the data over time to identity one or more reversal events while the turbine engine is operating, wherein each of the reversal events corresponds to a reversal in a value sign of the data; and identifying shaft shear in the shaft based on occurrence of N number of the reversal events.
A vacuum cleaner filter bag comprising an interior-enclosing wall of an air-permeable material as well as an inlet opening made in the wall, characterised in that the air-permeable material comprises at least one layer of a non-woven fabric which comprises fibrous and/or dust-like, recycled, textile material and/or cotton linters, wherein the specific volume of the layer of the non-woven fabric is 20 to 500 cm 3 /g.
A compound represented by Formula: wherein R 1 represents a hydrogen atom or (C 1-6 alkyl)carbonyl optionally substituted with one or more halogen atoms; R 2 represents a hydrogen atom or (C 1-6 alkyl)carbonyl optionally substituted with one or more halogen atoms; X represents O or NR 5; R 3 represents phenyl optionally substituted with one or more substituents selected from X 1, 5- or 6-membered heteroaryl optionally substituted with one or more substituents selected from X 1, or COOR 6; R 4 represents a hydrogen atom, a halogen atom, azido, -OR 7 or -NHR 8; R 5 represents a hydrogen atom or C 1-6 alkyl; R 6 represents a hydrogen atom or C 1-6 alkyl; R 7 represents a hydrogen atom, C 1-6 alkyl, C 1-6 alkoxy-C 1-6 alkyl or (C 1-6 alkyl)carbonyl optionally substituted with one or more halogen atoms; R 8 represents a hydrogen atom, C 1-6 alkyl or (C 1-6 alkyl)carbonyl optionally substituted with one or more halogen atoms; and X 1 represents C 1-6 alkyl, a halogen atom, C 1-6 alkoxy, nitro or cyano, an enantiomer thereof, a diastereomer thereof, or a pharmaceutically acceptable salt thereof. wherein R 1 represents a hydrogen atom or (C 1-6 alkyl)carbonyl optionally substituted with one or more halogen atoms; R 2 represents a hydrogen atom or (C 1-6 alkyl)carbonyl optionally substituted with one or more halogen atoms; X represents O or NR 5; R 3 represents phenyl optionally substituted with one or more substituents selected from X 1, 5- or 6-membered heteroaryl optionally substituted with one or more substituents selected from X 1, or COOR 6; R 4 represents a hydrogen atom, a halogen atom, azido, -OR 7 or -NHR 8; R 5 represents a hydrogen atom or C 1-6 alkyl; R 6 represents a hydrogen atom or C 1-6 alkyl; R 7 represents a hydrogen atom, C 1-6 alkyl, C 1-6 alkoxy-C 1-6 alkyl or (C 1-6 alkyl)carbonyl optionally substituted with one or more halogen atoms; R 8 represents a hydrogen atom, C 1-6 alkyl or (C 1-6 alkyl)carbonyl optionally substituted with one or more halogen atoms; and X 1 represents C 1-6 alkyl, a halogen atom, C 1-6 alkoxy, nitro or cyano,
A gas turbine engine component comprising: a static component comprising a seal housing fixed to a non-rotating engine structure; a seal body associated with the static component, the seal body having an end face configured to face a rotating seal seat; a seal carrier fixed to the seal body; characterised in that the component further comprises at least one spring acting between the seal housing and the seal carrier to accommodate axial movement of the seal body relative to the rotating seal seat and a damper positioned radially outward of the seal body, wherein the damper comprises a plurality of fingers, each finger extending from the seal housing in an axial direction to a distal end that extends in a radial inward direction toward the seal carrier, and wherein each finger includes a contact that engages the seal body to dampen radial movement of the seal body while accommodating axial movement of the seal body. a static component comprising a seal housing fixed to a non-rotating engine structure; a seal body associated with the static component, the seal body having an end face configured to face a rotating seal seat; a seal carrier fixed to the seal body; characterised in that the component further comprises at least one spring acting between the seal housing and the seal carrier to accommodate axial movement of the seal body relative to the rotating seal seat and a damper positioned radially outward of the seal body, wherein the damper comprises a plurality of fingers, each finger extending from the seal housing in an axial direction to a distal end that extends in a radial inward direction toward the seal carrier, and wherein each finger includes a contact that engages the seal body to dampen radial movement of the seal body while accommodating axial movement of the seal body.
A beverage comprising: water; a non-nutritive sweetener; a combination of caprylic acid, caproic acid, and butyric acid; and at least one aldehyde selected from the group consisting of decanal, nonanal, and 2-methy 1-butyraldehyde; wherein the concentration of the combined caprylic acid, caproic acid, and butyric acid in the beverage is between 50 parts per trillion and 500 parts per million; wherein the aldehyde is present in an amount from 0.001 wt% to 1.0 wt; wherein the non-nutritive sweetener is Rebaudioside A water; a non-nutritive sweetener; a combination of caprylic acid, caproic acid, and butyric acid; and at least one aldehyde selected from the group consisting of decanal, nonanal, and 2-methy 1-butyraldehyde;
An impeller (24, 51) comprising: an impeller body that is formed of a resin, forms a disk-like shape about an axis, and has a boss hole section (31a, 53a) formed therein, a rotating shaft rotating about the axis being fitted to the boss hole section; a plurality of blades provided on a front surface side of the impeller body; and a reinforcing ring (41, 54) that is disposed in a circumferential direction of the impeller body inside the impeller body, and forms an annular shape, wherein the reinforcing ring has a base part (43, 56) that is exposed to an inner peripheral surface of the boss hole section in the impeller body and forms an annular shape in the circumferential direction of the rotating shaft, and an engaging part (44, 57) that extends in both directions of the axis from the base part, on a side closer to the inside of the impeller body than the base part. an impeller body that is formed of a resin, forms a disk-like shape about an axis, and has a boss hole section (31a, 53a) formed therein, a rotating shaft rotating about the axis being fitted to the boss hole section; a plurality of blades provided on a front surface side of the impeller body; and a reinforcing ring (41, 54) that is disposed in a circumferential direction of the impeller body inside the impeller body, and forms an annular shape, wherein the reinforcing ring has a base part (43, 56) that is exposed to an inner peripheral surface of the boss hole section in the impeller body and forms an annular shape in the circumferential direction of the rotating shaft, and an engaging part (44, 57) that extends in both directions of the axis from the base part, on a side closer to the inside of the impeller body than the base part. a base part (43, 56) that is exposed to an inner peripheral surface of the boss hole section in the impeller body and forms an annular shape in the circumferential direction of the rotating shaft, and an engaging part (44, 57) that extends in both directions of the axis from the base part, on a side closer to the inside of the impeller body than the base part.
A multichannel radio frequency, RF, receive/transmit system for use in an magnetic resonance, MR, imaging system, comprising: - a RF coil array with multiple RF coil elements for emission and reception of RF signals, whereby each RF coil element is provided with tuning means, and - a tuning/matching circuit for comparing forward power provided to at least one of the RF coil elements with reflected power at the respective RF coil element of the at least one of the RF coil elements, and for tuning the at least one of the RF coil elements based on a comparison of the forward power and the reflected power at the at least one of the RF coil elements, the multichannel RF receive/transmit system - additionally comprising at least one RF amplifier for driving the RF coil array, and - the tuning/matching circuit comprising RF signal generating means configured to provide an RF signal to the at least one RF amplifier to provide said forward power, characterized in that - the RF signal generating means is an RF oscillator. - a RF coil array with multiple RF coil elements for emission and reception of RF signals, whereby each RF coil element is provided with tuning means, and - a tuning/matching circuit for comparing forward power provided to at least one of the RF coil elements with reflected power at the respective RF coil element of the at least one of the RF coil elements, and for tuning the at least one of the RF coil elements based on a comparison of the forward power and the reflected power at the at least one of the RF coil elements, the multichannel RF receive/transmit system - additionally comprising at least one RF amplifier for driving the RF coil array, and - the tuning/matching circuit comprising RF signal generating means configured to provide an RF signal to the at least one RF amplifier to provide said forward power, characterized in that - the RF signal generating means is an RF oscillator.
A door position detection device configured to measure a position of a door and suitable for an electric door opener, comprising an input gear, a door driving device, an output gear, a reduction gear unit, a magnet, a fixing bracket, connections lugs, connection posts, a magnetic angle sensor circuit board, a magnetic angle sensor chip and a housing in which are mounted the input gear in connection with the door driving device, the output gear linked through the reduction gear unit to the input gear, where a recessed cavity for accommodating and fixing the magnet is arranged on the output gear, where the fixing bracket is arranged above the magnet, where the connection lugs are extending from an edge of said fixing bracket, the connection posts matched with connection lugs are arranged on the housing, and the magnetic angle sensor circuit board is fixed on the fixing bracket above the magnet and where the magnetic angle sensor chip is arranged on the magnetic sensor circuit board corresponding to the mounting position of the magnet in the recessed cavity and for detection of the magnetic field angle.