mhurhangee/ep-ind-claims huggingface dataset:
A method of calibrating a quadrature receiver, the method comprising: generating a calibration tone using a local oscillator, generating a first oscillator signal and a second oscillator signal using the local oscillator, the first and second oscillator signals having a same amplitude and a quadrature phase difference relative to each other; injecting the calibration tone to the quadrature receiver; mixing the calibration tone with the first oscillator signal to produce a first DC component and with the second oscillator signal to produce a second DC component; detecting an amplitude and phase imbalance of the quadrature receiver; adjusting a gain of at least one of an in-phase and a quadrature signal path based on the amplitude imbalance; and adjusting a phase of at least one of the in-phase and quadrature signal paths based on the phase imbalance. generating a calibration tone using a local oscillator, generating a first oscillator signal and a second oscillator signal using the local oscillator, the first and second oscillator signals having a same amplitude and a quadrature phase difference relative to each other; injecting the calibration tone to the quadrature receiver; mixing the calibration tone with the first oscillator signal to produce a first DC component and with the second oscillator signal to produce a second DC component; detecting an amplitude and phase imbalance of the quadrature receiver; adjusting a gain of at least one of an in-phase and a quadrature signal path based on the amplitude imbalance; and adjusting a phase of at least one of the in-phase and quadrature signal paths based on the phase imbalance.
A wind turbine rotor blade, with a rotor blade shell (210, 220), which envelops an internal volume, a rotor blade heating system in or on a rotor blade root of the wind turbine rotor blade, wherein the rotor blade heating system generates heated air, and conveys it into the internal volume of the rotor blade, a passive flow rate increasing unit in form of at least one cross sectional constriction (300, 310, 320, 330) for narrowing a free cross section of the internal volume, and at least one first and second web (231, 232) along a longitudinal axis of the rotor blade, a first air channel between a leading edge of the rotor blade and a first web, wherein at least one first cross sectional constriction is provided in the first air channel, characterized in that the first cross sectional constriction is in three parts and arranged at a rotor blade length of between 10 m to 15 m, of at between 20 m to 25 m and of between 30 m to 35 m. a rotor blade shell (210, 220), which envelops an internal volume, a rotor blade heating system in or on a rotor blade root of the wind turbine rotor blade, wherein the rotor blade heating system generates heated air, and conveys it into the internal volume of the rotor blade, a passive flow rate increasing unit in form of at least one cross sectional constriction (300, 310, 320, 330) for narrowing a free cross section of the internal volume, and at least one first and second web (231, 232) along a longitudinal axis of the rotor blade, a first air channel between a leading edge of the rotor blade and a first web, wherein at least one first cross sectional constriction is provided in the first air channel, characterized in that the first cross sectional constriction is in three parts and arranged at a rotor blade length of between 10 m to 15 m, of at between 20 m to 25 m and of between 30 m to 35 m.
A heat exchanger comprising a core, said core defining a first fluid circuit and a second fluid circuit, said first fluid circuit being divided into first and second flow sections (21C, 22C) and said second fluid circuit being divided into first and second flow sections (21R, 22R), said first flow section of said first fluid circuit coinciding with said second flow section of said second fluid circuit and said second flow section of said first fluid circuit coinciding with said first flow section of said second fluid circuit, characterized in that said first fluid circuit is split into first and second sub-circuits connected to each other at an inlet and an outlet of said first fluid circuit, respectively, so that flow of a first fluid is divided into first and second flows (FC1, FC2) throughout said core, said first sub-circuit extending through said first flow section of said first fluid circuit, said second sub-circuit extending through said second flow section of said first fluid circuit, wherein said flow sections (21C, 22C, 21R, 22R) of said first fluid circuit and said second fluid circuit, respectively, are configured so that a direction of said first flow of said first fluid through said first flow section of said first fluid circuit is opposite to a direction of flow of a second fluid through said second flow section of said second fluid circuit and a direction of said second flow of said first fluid through said second flow section of said first fluid circuit is opposite to said direction of flow of said second fluid through said first flow section of said second fluid circuit.
A process for preparing ibrutinib, comprising Step 1: reacting a compound of Formula 1 with a compound of Formula 4 in the presence of a base and a catalyst to produce a compound of Formula 8, Step 2: reacting the compound of Formula 8 with a compound of Formula 2-1 in the presence of a base to produce ibrutinib, wherein X 1 is independently selected from the group consisting of Cl, Br and I, preferably Cl and Br; X 2 is independently selected from the group consisting of Cl and Br. Step 1: reacting a compound of Formula 1 with a compound of Formula 4 in the presence of a base and a catalyst to produce a compound of Formula 8, Step 2: reacting the compound of Formula 8 with a compound of Formula 2-1 in the presence of a base to produce ibrutinib, wherein X 1 is independently selected from the group consisting of Cl, Br and I, preferably Cl and Br; X 2 is independently selected from the group consisting of Cl and Br.
Multi-chamber cartridge having a longitudinal axis, having an outer tube parallel to the longitudinal axis of the multi-chamber cartridge, and an inner tube arranged in the outer tube and parallel to the longitudinal axis of the multi-chamber cartridge, having an outlet (9, 11) for the outer tube and the inner tube at a front end of the multi-chamber cartridge, and having a pushing-out element for pushing out the multi-chamber cartridge which is displaceably arranged in the outer tube for pushing out the multi-chamber cartridge in the direction of the longitudinal axis in the multi-chamber cartridge such that the pushing-out element pushes out contents of the outer tube and the inner tube through the outlet (9, 11) of the multi-chamber cartridge when the pushing-out element is displaced in the direction of the front end of the multi-chamber cartridge in the outer tube of the multi-chamber cartridge, wherein the pushing-out element has at least one cutting edge such that, upon displacement of the pushing-out element in the direction of the longitudinal axis of the multi-chamber cartridge in the direction of the front end of the multi-chamber cartridge in the outer tube, the cutting edge of the pushing-out element cuts through the inner tube in a longitudinal direction, wherein the pushing-out element has an inner plunger for pushing out the inner tube and a circumferential inner seal which rests in a circumferentially sealing manner against an inner circumference of the inner tube, characterized in that behind the inner seal the inner plunger tapers to form an undercut, and in that the inner seal of the inner plunger in the outer tube of the multi-chamber cartridge is surrounded by a cylindrical collar of the pushing-out element which surrounds the inner tube and which has a collar opening radially outside the undercut at the taper behind the inner seal of the inner plunger such that the undercut is accessible radially from outside through the collar opening in the collar of the pushing-out element.
An infrared ray cut-off material that is formed of phosphorus-doped antimony tin oxide powder, wherein a content of antimony in terms of SbO 2 is not less than 14 parts by mass and not more than 30 parts by mass with respect to 100 parts by mass of the infrared ray cut-off material, a content of phosphorus in terms of PO 2.5 is not less than 1 part by mass and not more than 25 parts by mass with respect to 100 parts by mass of the infrared ray cut-off material, and a balance other than antinomy oxide and phosphorus oxide is tin oxide.
A data communication method comprising: receiving, at a server, a request for accessing a target page sent by a browser; establishing, by the server, a second channel with the browser and a first channel with client terminal software; storing, by the server, a corresponding relationship between the first channel and the second channel; sending, by the server, a plugin execution instruction to the client terminal software through the first channel, the plugin execution instruction being used for instructing the client terminal software to run a target plugin, wherein a page part corresponding to the target plugin is a part of the target page, and instructing by the server, through the second channel, the browser to process other page functions of the target page; receiving, by the server, plugin running result data fed back through the first channel by the client terminal software; processing the plugin running result data; and sending a processing result to the browser through the second channel for display as part of the target page. receiving, at a server, a request for accessing a target page sent by a browser; establishing, by the server, a second channel with the browser and a first channel with client terminal software; storing, by the server, a corresponding relationship between the first channel and the second channel; sending, by the server, a plugin execution instruction to the client terminal software through the first channel, the plugin execution instruction being used for instructing the client terminal software to run a target plugin, wherein a page part corresponding to the target plugin is a part of the target page, and instructing by the server, through the second channel, the browser to process other page functions of the target page; receiving, by the server, plugin running result data fed back through the first channel by the client terminal software; processing the plugin running result data; and sending a processing result to the browser through the second channel for display as part of the target page.
A cardiogenic medium that comprises a conditioned culture medium, wherein the conditioned culture medium is obtained by culturing ventral endodermal cells in medium in order to generate the conditioned culture medium, characterised in that the ventral endodermal cells are from a non-human embryo that has been treated with TNF-α. culturing ventral endodermal cells in medium in order to generate the conditioned culture medium, characterised in that the ventral endodermal cells are from a non-human embryo that has been treated with TNF-α.
An apparatus for measuring bio-information, the apparatus comprising: a pulse wave sensor configured to emit light of multiple wavelengths onto an object, and detect the light to obtain multi-wavelength pulse wave signals when the light is reflected or scattered from the object; and a processor configured to: calculate a first differential signal by subtracting a first pulse wave signal having a first wavelength from a second pulse wave signal having a second wavelength, calculate a second differential signal by subtracting the first pulse wave signal having the first wavelength from a third pulse wave signal having a third wavelength, calculate a ratio between the first differential signal and the second differential signal, obtain a conversion signal that indicates a contact pressure between the object and the pulse wave sensor at each measurement time, based on the calculated ratio and a correlation between a ratio of differential signals and contact pressure, obtain an oscillometric envelope based on the multi-wavelength pulse wave signals and the conversion signal, and obtain bio-information based on the oscillometric envelope. a pulse wave sensor configured to emit light of multiple wavelengths onto an object, and detect the light to obtain multi-wavelength pulse wave signals when the light is reflected or scattered from the object; and a processor configured to: calculate a first differential signal by subtracting a first pulse wave signal having a first wavelength from a second pulse wave signal having a second wavelength, calculate a second differential signal by subtracting the first pulse wave signal having the first wavelength from a third pulse wave signal having a third wavelength, calculate a ratio between the first differential signal and the second differential signal, obtain a conversion signal that indicates a contact pressure between the object and the pulse wave sensor at each measurement time, based on the calculated ratio and a correlation between a ratio of differential signals and contact pressure, obtain an oscillometric envelope based on the multi-wavelength pulse wave signals and the conversion signal, and obtain bio-information based on the oscillometric envelope. calculate a first differential signal by subtracting a first pulse wave signal having a first wavelength from a second pulse wave signal having a second wavelength, calculate a second differential signal by subtracting the first pulse wave signal having the first wavelength from a third pulse wave signal having a third wavelength, calculate a ratio between the first differential signal and the second differential signal, obtain a conversion signal that indicates a contact pressure between the object and the pulse wave sensor at each measurement time, based on the calculated ratio and a correlation between a ratio of differential signals and contact pressure, obtain an oscillometric envelope based on the multi-wavelength pulse wave signals and the conversion signal, and obtain bio-information based on the oscillometric envelope.
A preparation containing an antibiotic, with the exclusion of β-lactam antibiotics, and silver in the form selected from nanoparticles at concentrations 1 mg/L to 20 mg/L for silver particle size from 1 nm to 100 nm, and silver compound at concentrations of silver from 0.01 mg/L to 10 mg/L, for use in the treatment of infections caused by bacteria resistant against the antibiotic.
A display module applied to a mobile terminal, comprising a screen cover plate, a first antenna array, a first flexible circuit board and a first radio frequency integrated circuit; wherein, the first antenna array is arranged in a first region of the screen cover plate; and the first radio frequency integrated circuit is arranged on the first flexible circuit board, and is electrically connected to the first antenna array through the first flexible circuit board, characterized in that the first antenna array comprises at least two first dipole antenna elements, and the first dipole antenna element comprises two first dipole antennas arranged in parallel, wherein a first bonding region and a first feeder line corresponding to each of the first dipole antenna elements are arranged on the screen cover plate, and one end of the first feeder line is electrically connected to a corresponding first dipole antenna element, and the other end is electrically connected to a corresponding first bonding region, wherein the first bonding region is electrically connected to the first flexible circuit board. the first antenna array is arranged in a first region of the screen cover plate; and the first radio frequency integrated circuit is arranged on the first flexible circuit board, and is electrically connected to the first antenna array through the first flexible circuit board, characterized in that the first antenna array comprises at least two first dipole antenna elements, and the first dipole antenna element comprises two first dipole antennas arranged in parallel, wherein a first bonding region and a first feeder line corresponding to each of the first dipole antenna elements are arranged on the screen cover plate, and one end of the first feeder line is electrically connected to a corresponding first dipole antenna element, and the other end is electrically connected to a corresponding first bonding region, wherein the first bonding region is electrically connected to the first flexible circuit board.
Thermal storage device by means of which the time of refrigeration can be uncoupled from the time of cold use for cooling, wherein the thermal storage device is charged via a primary pipe system (20; 22) which is connected to a cold generation unit and in which a primary coolant circulates, and is discharged via a secondary pipe system (28; 30) in which a secondary coolant circulates, wherein the thermal storage device has a space in which the primary pipe system and the secondary pipe system are arranged, wherein the primary pipe system and the secondary pipe system are subdivided into a plurality of pipe sections located in different height levels extending parallel to the floor of the space, and wherein a storage medium is located in the space of the thermal storage device, which storage medium substantially completely surrounds the pipe sections of the primary pipe system (20; 22) and the secondary pipe system (28; 30) and serves to store the thermal energy, characterized in that the space has an increasing cross-section from its floor upwards; and that the primary coolant can be supplied stepwise from bottom to top in the single pipe sections of the primary pipe system in the respective planes via a device for cooling the storage medium.
An automotive engine cooling system stop-leak formulation comprising a polymeric resin and a particulate package, wherein the particulate package comprises a first fibre having a first fibre length and a greater amount of a second fibre having a second fibre length; characterized in that the weight ratio of the first to the second fibre is from 1:2 to 1:12 and the second fibre is shorter than the first fibre and wherein the first fibre length is in the range 50μm to 500μm and the second fibre length is in the range 1 to 25μm wherein the fibres are wood flour and oilseed meal.
A fueling environment communication system for providing high bandwidth communication via existing field wiring to a plurality of forecourt devices, said communication system comprising: a back room communication module having a first plurality of Ethernet ports for connection to external devices using Ethernet communication and a second plurality of Ethernet ports; said back room communication module further comprising a plurality of modulation interface devices each connected on a first side to a respective one of said second plurality of Ethernet ports; a combiner module having a high pass filter connected to each of said modulation interface devices on a second side thereof to pass a modulated high frequency signal; said combiner module having a low pass filter through which low frequency legacy data can be passed and combined with said modulated high frequency signal; and said combiner module connectable via said existing field wiring to communicate with said forecourt devices in point-to-point fashion. a back room communication module having a first plurality of Ethernet ports for connection to external devices using Ethernet communication and a second plurality of Ethernet ports; said back room communication module further comprising a plurality of modulation interface devices each connected on a first side to a respective one of said second plurality of Ethernet ports; a combiner module having a high pass filter connected to each of said modulation interface devices on a second side thereof to pass a modulated high frequency signal; said combiner module having a low pass filter through which low frequency legacy data can be passed and combined with said modulated high frequency signal; and said combiner module connectable via said existing field wiring to communicate with said forecourt devices in point-to-point fashion.
A sensor for a differential scanning calorimeter comprising: a ceramic substrate; a sample side thermopile comprising a plurality of thermocouple elements of a first polarity and a plurality of thermocouple elements of a second polarity, wherein sample side segments of the thermocouple elements of the first polarity are diffusion-bonded to samples side segments of the thermocouple elements of the second polarity to form a plurality of diffusion-bonded thermocouple junctions; a reference side thermopile comprising a plurality of thermocouple elements of the first polarity and a plurality of thermocouple elements of the second polarity, wherein reference side segments of the thermocouple elements of the first polarity are diffusion-bonded to reference side segments of the thermocouple elements of the second plurality to form a plurality of diffusion-bonded reference side thermocouple junctions; a sample platform positioned and centered over the sample side thermopile; and a reference platform positioned and centered over the reference side thermopile, wherein outer arc segments (34n, 34p) of thermocouple elements of the first polarity are diffusion bonded to the ceramic substrate; wherein the sample thermopile comprises inner arc segments (32n, 32p) of thermocouple elements of the second polarity that are diffusion bonded to the sample platform, and the reference thermopile comprises inner arc segments (32n, 32p) of thermocouple elements of the second polarity that are diffusion bonded to the reference platform, and wherein the second polarity is opposite to the first polarity. a ceramic substrate; a sample side thermopile comprising a plurality of thermocouple elements of a first polarity and a plurality of thermocouple elements of a second polarity, wherein sample side segments of the thermocouple elements of the first polarity are diffusion-bonded to samples side segments of the thermocouple elements of the second polarity to form a plurality of diffusion-bonded thermocouple junctions; a reference side thermopile comprising a plurality of thermocouple elements of the first polarity and a plurality of thermocouple elements of the second polarity, wherein reference side segments of the thermocouple elements of the first polarity are diffusion-bonded to reference side segments of the thermocouple elements of the second plurality to form a plurality of diffusion-bonded reference side thermocouple junctions; a sample platform positioned and centered over the sample side thermopile; and a reference platform positioned and centered over the reference side thermopile, wherein outer arc segments (34n, 34p) of thermocouple elements of the first polarity are diffusion bonded to the ceramic substrate; wherein the sample thermopile comprises inner arc segments (32n, 32p) of thermocouple elements of the second polarity that are diffusion bonded to the sample platform, and the reference thermopile comprises inner arc segments (32n, 32p) of thermocouple elements of the second polarity that are diffusion bonded to the reference platform, and wherein the second polarity is opposite to the first polarity.