mhurhangee/patent-ind-claim-en huggingface dataset:
Method of inductive current transmission by means of at least one transmission coil subjected with an electrical power by an amplifier, the amplifier being operated in a zero-voltage switching (ZVC) and zero current switching (ZCV) mode, the amplifier being a class D amplifier that is readjusted by a sequence control, the sequence control generating pulses of presetable pulse widths as square-wave signals, and a presetable number of pulses being divided into equally dimensioned intervals, and the sequence control generating a lower number of pulses than the preseted number of pulses in the interval for power control of the amplifier, a pulse width modulation in case of class D amplifiers not being intended for power control, the pulse width modulation exclusively being intended for tuning an amplifier mode of class DE, for zero voltage switching and for zero current switching, wherein it is provided for power control that the square-wave signals are divided into equally dimensioned intervals and that the sequence control generates a presetable number of pulses in the interval, corresponding to a thinning out, for power control of the amplifier, the amplifier having a half bridge having two electronic switches, a series resonant circuit and two capacities assigned to the electronic switches, and that the sequence control generates two square-wave signals being phase-shifted by a half period for controlling the electronic switches, the pulse width of which is dimensioned such that a discharging capacity is discharged exactly when the following square-wave signal is present, the half bridge being short-circuited one-sidedly for a decay of the half bridge.
An automated system for inspecting a porous substrate using a sample, comprising, a delivery device positioned to apply the sample to a target point on the porous substrate along a vertical sample axis ; an imaging device and one or more lenses , positioned so that the imaging device and the or each lens has a focus axis that is angularly offset from the vertical sample axis, and has a viewing focal point that is substantially the same as the target point; a light source that is offset from the delivery device to illuminate the surface target; and a processor comprising a data acquisition and control system configured to coordinate the timing and automation of the delivery and imaging devices, and configured to determine one or more characteristics of the porous substrate.
A data sending apparatus, comprising: a receiving module , configured to receive specified scheduling information sent by a base station of a first serving cell, wherein the specified scheduling information carries a second serving cell identifier, an available device to device, D2D, transmission resource in the second serving cell, and a transmission mode in the second serving cell, wherein the transmission mode is a D2D discovery mode; a synchronization module , configured to perform cell synchronization with the second serving cell based on the second serving cell identifier; and a sending module , configured to send D2D data on the available D2D transmission resource in the second serving cell according to the specified scheduling information. a receiving module , configured to receive specified scheduling information sent by a base station of a first serving cell, wherein the specified scheduling information carries a second serving cell identifier, an available device to device, D2D, transmission resource in the second serving cell, and a transmission mode in the second serving cell, wherein the transmission mode is a D2D discovery mode; a synchronization module , configured to perform cell synchronization with the second serving cell based on the second serving cell identifier; and a sending module , configured to send D2D data on the available D2D transmission resource in the second serving cell according to the specified scheduling information.
High-speed wire electrochemical-discharge cutting method (HS-WECDM), in which a work piece is processed by means of a wire electrode, in which consecutive negative polarity pulses are applied at said wire electrode, the negative polarity pulses having open circuit voltage U o2 , thereby at least partially developing discrete electrical discharges, characterized in that the method further includes, applying positive polarity pulses at the wire electrode between the negative pulses, the positive polarity pulses having a positive polarity open circuit voltage U o1 , and that an ignition occurring with each positive polarity pulse is immediately detected, and that the positive polarity pulses are immediately interrupted.
A plant growth media composition comprising: plant growth substrate materials comprising coir, peat, and perlite; cellulose fibers present in an amount ranging from 0.1% w/w to 40% w/w; and clay comprising a calcium bentonite; wherein the cellulose fibers have an average length ranging from about 10 μm to about 5 mm, and an average width ranging from about 1 μm to about 500 μm. plant growth substrate materials comprising coir, peat, and perlite; cellulose fibers present in an amount ranging from 0.1% w/w to 40% w/w; and clay comprising a calcium bentonite; wherein the cellulose fibers have an average length ranging from about 10 μm to about 5 mm, and an average width ranging from about 1 μm to about 500 μm.
An oral paste comprising: (i) meloxicam, (ii) a viscosity modifying agent in an amount of from 3 to 10% w/v of the paste, (iii) a liquid vehicle, wherein the viscosity modifying agent is a mixture of hydroxypropylcellulose and xanthan gum (i) meloxicam, (ii) a viscosity modifying agent in an amount of from 3 to 10% w/v of the paste, (iii) a liquid vehicle, wherein the viscosity modifying agent is a mixture of hydroxypropylcellulose and xanthan gum
A pharmaceutical composition comprising: a. an effective amount of a compound of Formula B: or a pharmaceutically acceptable salt thereof, wherein: each of R 1 and R 2 is independently selected from -CH 3 and -CD 3 ; R 5 is hydrogen or deuterium; and either (a) Y 1 is -OH, and Y 2 is hydrogen or deuterium, or (b) Y 1 and Y 2 are taken together with the carbon to which they are attached to form C=O; b. a second therapeutic agent selected from insulin or insulin analogues, glucagon-like-peptide-1 (GLP-1) receptor agonists, sulfonylurea agents, biguanide agents, alpha-glucosidase inhibitors, PPAR agonists, meglitinide agents, dipeptidyl-peptidase (DPP) IV inhibitors, phosphodiesterase inhibitors, amylin agonists, CoEnzyme A inhibitors, and antiobesity agents; and c. a pharmaceutically acceptable carrier. a. an effective amount of a compound of Formula B: or a pharmaceutically acceptable salt thereof, wherein: each of R 1 and R 2 is independently selected from -CH 3 and -CD 3 ; R 5 is hydrogen or deuterium; and either (a) Y 1 is -OH, and Y 2 is hydrogen or deuterium, or (b) Y 1 and Y 2 are taken together with the carbon to which they are attached to form C=O; each of R 1 and R 2 is independently selected from -CH 3 and -CD 3 ; R 5 is hydrogen or deuterium; and either (a) Y 1 is -OH, and Y 2 is hydrogen or deuterium, or (b) Y 1 and Y 2 are taken together with the carbon to which they are attached to form C=O; (a) Y 1 is -OH, and Y 2 is hydrogen or deuterium, or (b) Y 1 and Y 2 are taken together with the carbon to which they are attached to form C=O; b. a second therapeutic agent selected from insulin or insulin analogues, glucagon-like-peptide-1 (GLP-1) receptor agonists, sulfonylurea agents, biguanide agents, alpha-glucosidase inhibitors, PPAR agonists, meglitinide agents, dipeptidyl-peptidase (DPP) IV inhibitors, phosphodiesterase inhibitors, amylin agonists, CoEnzyme A inhibitors, and antiobesity agents; and c. a pharmaceutically acceptable carrier.
A device that can be used to sequester activated leukocytes and/or platelets from a biological sample, wherein the device comprises a housing containing hollow fibres having an intracapillary space (ICS) and also comprises a passageway in the form of an extracapillary space (ECS) defined by the interior of the housing and the exterior surface of the hollow fibres, an inlet into the ECS and an outlet from the ECS, the device being configured to provide a sufficiently low shear force in said passageway so that, when the device is in use with the biological sample being pumped through the passageway, activated leukocytes and/or platelets from the biological sample will adhere to the exterior surface of the hollow fibres; wherein the ICS of the hollow fibres is capped at one end.
A method for transmitting a hybrid automatic repeat request, HARQ-ACK, payload by a user equipment, UE, in a 3rd generation partnership project, 3GPP, carrier aggregation, CA, wireless communication system, the method comprising: receiving a first physical downlink control channel, PDCCH, including a first downlink assignment index, DAI, and a second DAI in a subframe, SF within a bundling window, wherein the bundling window contains a plurality of subframes corresponding to a plurality of CA cells; receiving downlink, DL, data in the bundling window based on the first PDCCH; configuring the HARQ-ACK payload for the DL data using the first DAI and the second DAI; and transmitting the HARQ-ACK payload in an uplink, UL, SF associated with the bundling window, characterized in that the value of the first DAI indicates a scheduling order value in units of cell/SF associated with the first PDCCH, the scheduling order value in units of cell/SF being counted in order of increasing firstly a cell index and then increasing secondly an SF index in the SFs scheduled by PDCCHs in the bundling window, and the value of the second DAI for each SF is obtained by accumulating in units of SF, the number of cells scheduled for the UE by PDCCHs, by starting accumulating scheduled cells in the first scheduled SF in the bundling window and continuing accumulating on a SF dimension until ending accumulating scheduled cells of each scheduled SF in the bundling window. receiving a first physical downlink control channel, PDCCH, including a first downlink assignment index, DAI, and a second DAI in a subframe, SF within a bundling window, wherein the bundling window contains a plurality of subframes corresponding to a plurality of CA cells; receiving downlink, DL, data in the bundling window based on the first PDCCH; configuring the HARQ-ACK payload for the DL data using the first DAI and the second DAI; and transmitting the HARQ-ACK payload in an uplink, UL, SF associated with the bundling window, characterized in that the value of the first DAI indicates a scheduling order value in units of cell/SF associated with the first PDCCH, the scheduling order value in units of cell/SF being counted in order of increasing firstly a cell index and then increasing secondly an SF index in the SFs scheduled by PDCCHs in the bundling window, and the value of the second DAI for each SF is obtained by accumulating in units of SF, the number of cells scheduled for the UE by PDCCHs, by starting accumulating scheduled cells in the first scheduled SF in the bundling window and continuing accumulating on a SF dimension until ending accumulating scheduled cells of each scheduled SF in the bundling window.
A fume cupboard, of the type comprising a framework with two front uprights , two rear uprights , a rear panel , two side panels , an upper panel and a sash consisting of a frame and at least one panel for closing an inner chamber of said fume cupboard , provided with a transmission system for transmission of the vertical movements of said sash located inside the above-mentioned front uprights , or inside said front uprights and said rear uprights , characterised in that : the above-mentioned uprights (2a,2b;3a,3b) having an internal space for housing said transmission system , closed by a door .
Method for determining the relative position between an object and a detector , wherein a relative movement between the object and the detector can be carried out in a movement direction, wherein the object has a plurality of different detection elements in a defined arrangement relative to each other and relative to the object , wherein the detector has a reading window for perceiving detection elements and wherein a determination of the relative position between the object and the detector is carried out when a perceived detection element has been identified - taking into account the known defined arrangement of the detection elements relative to each other and relative to the object - by means of the detector or by means of a determination device which cooperates with the detector , wherein the determination of the relative position between the object and the detector is carried out only when a plurality of detection elements which have been perceived by the reading window at the same time have been identified, characterised in that a planar geometry of the reading window and/or a planar geometry of a fading element which is arranged in front of the detector for fading out a predeterminable portion of the light which arrives from the object in the direction of the reading window of the detector is/are produced in such a manner that a determination of the relative position between the object and the detector with regard to a relative rotation between the object and the detector about a rotation axis is enabled. wherein the object has a plurality of different detection elements in a defined arrangement relative to each other and relative to the object , wherein the detector has a reading window for perceiving detection elements and wherein a determination of the relative position between the object and the detector is carried out when a perceived detection element has been identified - taking into account the known defined arrangement of the detection elements relative to each other and relative to the object - by means of the detector or by means of a determination device which cooperates with the detector , wherein the determination of the relative position between the object and the detector is carried out only when a plurality of detection elements which have been perceived by the reading window at the same time have been identified, characterised in that a planar geometry of the reading window and/or a planar geometry of a fading element which is arranged in front of the detector for fading out a predeterminable portion of the light which arrives from the object in the direction of the reading window of the detector is/are produced in such a manner that a determination of the relative position between the object and the detector with regard to a relative rotation between the object and the detector about a rotation axis is enabled.
An apparatus for detecting changes in dental tissue comprising: an Acoustic Phonon Mediated Optical Scattering (APMOS) spectrometer system comprising a light source and a high-resolution spectrometer configured to capture spectroscopic data from a location including dental tissue , wherein the spectroscopic data is based on inelastic Brillouin scattering of light emitted by the light source due to interaction with acoustic phonons in the dental tissue at the location; circuitry configured to: identify a spectral change of the spectroscopic data based on a comparison between the spectroscopic data and a baseline signal, wherein the spectral change corresponds to a difference in speed of sound in dental tissue due to a change in density at the location compared to the baseline signal; determine an assessment of a state of the dental tissue at the location based on the spectral change; and output the determined assessment of the state of dental tissue at the location; and wherein the baseline signal comprises at least one of a frequency location of a feature of a waveform, a width in frequency of the feature of the waveform, or an amplitude of a particular frequency in the waveform. an Acoustic Phonon Mediated Optical Scattering (APMOS) spectrometer system comprising a light source and a high-resolution spectrometer configured to capture spectroscopic data from a location including dental tissue , wherein the spectroscopic data is based on inelastic Brillouin scattering of light emitted by the light source due to interaction with acoustic phonons in the dental tissue at the location; circuitry configured to: identify a spectral change of the spectroscopic data based on a comparison between the spectroscopic data and a baseline signal, wherein the spectral change corresponds to a difference in speed of sound in dental tissue due to a change in density at the location compared to the baseline signal; determine an assessment of a state of the dental tissue at the location based on the spectral change; and output the determined assessment of the state of dental tissue at the location; and identify a spectral change of the spectroscopic data based on a comparison between the spectroscopic data and a baseline signal, wherein the spectral change corresponds to a difference in speed of sound in dental tissue due to a change in density at the location compared to the baseline signal; determine an assessment of a state of the dental tissue at the location based on the spectral change; and output the determined assessment of the state of dental tissue at the location; and wherein the baseline signal comprises at least one of a frequency location of a feature of a waveform, a width in frequency of the feature of the waveform, or an amplitude of a particular frequency in the waveform.
Test part arrangement for an explosion-proof housing , having a test part , which is completely passed through by a test channel that has an inner orifice on an inner side of the test part and an outer orifice on an outer side of the test part , having a securing device arranged on the test part , characterized in that a closure part is present that can be inserted in an insertion direction (R) into the test channel until it reaches a closing position (S), that the closure part comprises a stop surface that abuts against a counter-stop surface of the test part in the closing position (S) of the closure part , whereby a movement of the closure part out of the closing position (S) in insertion direction (R) is blocked and whereby the closure part being in the closing position (S) closes the test channel in flameproof manner, that the securing device takes a securing position, if the closure part is in its closing position (S) and secures the closure part against a movement opposite the insertion direction (R), that the securing device comprises at least one latch element that is elastically movable supported on the test part orthogonal and/or obliquely to the insertion direction (R), and that a counter latch element is present on the closure part that cooperates with the latch element for securing the closure part in its closing position (S). having a test part , which is completely passed through by a test channel that has an inner orifice on an inner side of the test part and an outer orifice on an outer side of the test part , having a securing device arranged on the test part , characterized in that a closure part is present that can be inserted in an insertion direction (R) into the test channel until it reaches a closing position (S), that the closure part comprises a stop surface that abuts against a counter-stop surface of the test part in the closing position (S) of the closure part , whereby a movement of the closure part out of the closing position (S) in insertion direction (R) is blocked and whereby the closure part being in the closing position (S) closes the test channel in flameproof manner, that the securing device takes a securing position, if the closure part is in its closing position (S) and secures the closure part against a movement opposite the insertion direction (R), that the securing device comprises at least one latch element that is elastically movable supported on the test part orthogonal and/or obliquely to the insertion direction (R), and that a counter latch element is present on the closure part that cooperates with the latch element for securing the closure part in its closing position (S).
Heating and/or air-conditioning system for a ground-based vehicle , comprising at least one circulation-air blower for conveying circulation air in relation to a vehicle interior , and at least one fresh-air blower for only conveying fresh air for a vehicle interior , wherein the heating and/or air-conditioning system has at least also an exhaust-air-conveying device for conveying exhaust air from a vehicle interior out into the environment, and the rotational speeds of the motors of circulation-air blower , of fresh-air blower and of exhaust-air-conveying device are regulable independently of one another, characterized in that the at least one circulation-air blower is intended only for conveying circulation air, and the supply of fresh air is configured in such a way that the fresh-air line is separated from the circulation-air line , so that, when the at least one fresh-air blower is operating, fresh air is able to be blown into the vehicle interior only in an unmixed state, that is to say without admixture of circulation air.
An injectable, ready-to-use two paste cement-forming composition, comprising (a) a first paste comprising a non-aqueous oil-based suspension of monocalcium phosphate monohydrate (MCPM) powder, at least one surfactant effective to improve compatibility of the oil and the MCPM, and an organic acid, the first paste having an oil to MCMP powder weight ratio of 0.2 to 0.5, and (b) a second paste comprising an aqueous suspension of β-tricalcium phosphate (β-TCP) powder and a gel-forming polymer, the second paste having a water to β-TCP powder weight ratio of 0.3 to 0.5, wherein the molar ratio of β-TCP powder to MCPM powder is greater than 1. (a) a first paste comprising a non-aqueous oil-based suspension of monocalcium phosphate monohydrate (MCPM) powder, at least one surfactant effective to improve compatibility of the oil and the MCPM, and an organic acid, the first paste having an oil to MCMP powder weight ratio of 0.2 to 0.5, and (b) a second paste comprising an aqueous suspension of β-tricalcium phosphate (β-TCP) powder and a gel-forming polymer, the second paste having a water to β-TCP powder weight ratio of 0.3 to 0.5,
A filter assembly comprising: a primary filter ; a secondary filter into which the primary filter is detachably inserted; a case detachably coupled to the primary filter and comprising a plurality of air inlet holes ; and at least one blade being rotatably coupled to the secondary filter and configured to compress first foreign substances collected in the primary filter based on the primary filter moving in a first direction in which the primary filter is drawn out from the secondary filter ; wherein the at least one blade is rotated from a first position to a second position as the primary filter moves in the first direction, and is rotated back to the first position from the second position as the primary filter moves in a second direction opposite to the first direction, the at least one blade not being in contact with an inner side of the primary filter at the first position and being in contact with the inner side of the primary filter at the second position.